mhurhangee/ep-ind-claims huggingface dataset:
A transparent conductive film-equipped glass substrate including a glass substrate, an underlying glass layer provided on the glass substrate, and a transparent conductive film provided on the underlying glass layer and subjected to patterning by laser, the underlying glass layer having an absorptance of a wavelength of the laser lower than the transparent conductive film and higher than the glass substrate, wherein a patterned region formed by removing part of the transparent conductive film by the patterning by laser includes a first linear portion, a second linear portion, and a connecting portion formed into an arc connecting between the first linear portion and the second linear portion, the first linear portion and the second linear portion form an angle of 120° or less with each other, and the connecting portion formed into an arc has a radius of curvature of 0.5 mm or more.
Method for functionalizing dental restorations, wherein the following steps are carried out: - inserting a shaped body into a receiving portion of an application apparatus; - providing a digital data set that represents at least a partial region of the surface of the dental shaped body; - selecting a functionalization surface within the partial region of the surface of the dental shaped body; - infiltrating a volume below the functionalization surface with an active functionalization substance, the infiltration with the active functionalization substance being carried out by moving the receiving portion and/or a dispensing apparatus in a targeted manner and the infiltration causing an increase in the mass of the shaped body while the volume of the shaped body remains substantially unchanged; - removing the dental shaped body from the application apparatus; and - activating the active functionalization substance in a thermal, optical or chemical process. - inserting a shaped body into a receiving portion of an application apparatus; - providing a digital data set that represents at least a partial region of the surface of the dental shaped body; - selecting a functionalization surface within the partial region of the surface of the dental shaped body; - infiltrating a volume below the functionalization surface with an active functionalization substance, the infiltration with the active functionalization substance being carried out by moving the receiving portion and/or a dispensing apparatus in a targeted manner and the infiltration causing an increase in the mass of the shaped body while the volume of the shaped body remains substantially unchanged; - removing the dental shaped body from the application apparatus; and - activating the active functionalization substance in a thermal, optical or chemical process.
A composition consisting essentially of an infrared absorbing phthalocyanine compound or naphthalocyanine compound and a plasticizer, wherein the plasticizer comprises one or more esters of a polybasic acid or a polyhydric alcohol, wherein the phthalocyanine compound or naphthalocyanine compound is present at a level of about 0.0001 to about 10 wt. % based on the total weight of the composition, and wherein the phthalocyanine compound or naphthalocyanine compound is an alkoxy-substituted phthalocyanine or naphthalocyanine compound.
A system for determining the position of a power tool movable within a local area, comprising a sender unit attached to the power tool, one or more receivers (14,15) located within the local area, and a processing unit connected to the receivers (14,15), wherein the sender unit is arranged to send localization signals reflecting positional data of the power tool to be picked up by said one or more receivers (14,15), characterized in that - the power tool is provided with a memory programmed with specific identity data of the power tool, and - a data transferring unit is provided for transferring the specific identity data from the memory of the power tool to the sender unit when the sender unit is installed on the power tool. - the power tool is provided with a memory programmed with specific identity data of the power tool, and - a data transferring unit is provided for transferring the specific identity data from the memory of the power tool to the sender unit when the sender unit is installed on the power tool.
Operating method for a management and/or control unit (2; 12, 21, 14) for a home automation installation (1; 11), the method comprising the following steps: - receiving data relating to a first home automation apparatus (3a; 13a) integrated or installed within the home automation installation, the data including at least one structural and/or functional feature of the first home automation apparatus; - following the step of receiving the data, automatically generating at least one scenario involving at least the first home automation apparatus, the first home automation apparatus being a home automation apparatus newly integrated or newly installed within the home automation installation, the scenario being a scenario of use of the home automation apparatus newly integrated or newly installed within the home automation installation and the scenario being a set of actions implemented by one or more home automation apparatuses of the installation in a determined and/or logical and/or coordinated manner, the set of actions comprising at least one conditional action. - receiving data relating to a first home automation apparatus (3a; 13a) integrated or installed within the home automation installation, the data including at least one structural and/or functional feature of the first home automation apparatus; - following the step of receiving the data, automatically generating at least one scenario involving at least the first home automation apparatus, the first home automation apparatus being a home automation apparatus newly integrated or newly installed within the home automation installation, the scenario being a scenario of use of the home automation apparatus newly integrated or newly installed within the home automation installation and the scenario being a set of actions implemented by one or more home automation apparatuses of the installation in a determined and/or logical and/or coordinated manner, the set of actions comprising at least one conditional action.
Medical blood treatment system comprising at least one treatment station for hemodialysis treatment, which has a dialysis machine, a video camera, a screen and an intercom device, and at least one doctor's station comprising a computer, a screen and an intercom device, wherein the computer of the doctor's station communicates with the dialysis machine via a data transmission link for transmitting treatment data, characterized in that the communication of the video camera of the treatment station with the screen of the doctor's station and the communication of the intercom devices (18, 34) of the treatment station and the doctor's station takes place via the data transmission link (21, 40, 36), or via a channel permanently assigned thereto, wherein treatment parameters to be set, which are determined by a doctor, are communicated to nursing staff via the data transmission link by being displayed on the screen of the treatment station.
A ring segment for a stabilization ring of an underground reamer, the ring segment comprising: an arcuate ring portion extending between a first end and an opposite second end, wherein in use, a plurality of arcuate ring portions are arranged end to end to form the stabilization ring, and wherein the stabilization ring is fastened to at least one cutting wing of the reamer. an arcuate ring portion extending between a first end and an opposite second end, wherein in use, a plurality of arcuate ring portions are arranged end to end to form the stabilization ring, and wherein the stabilization ring is fastened to at least one cutting wing of the reamer.
Residential skylight with a sash frame equipped with frame legs, wherein a cover plate is attached to at least one of the frame legs by means of a fastening device, the fastening device comprising at least one support element and at least one counter-support element interacting with it for axially non-displaceable support of the cover plate at the frame leg, and at least one rearengagement element as well as a rear-engagement counter-element interacting with it to prevent the cover plate from lifting off the frame leg, characterised in that the rear-engagement element is a manually operated locking pin supported in such a way that it is displaceable.
A structure for mounting an LED thereon, comprising: a co-fired ceramic material; and a leadframe structure, on the co-fired ceramic material, the leadframe structure including a portion thereof that integrates the leadframe structure with the co-fired ceramic material, wherein the portion of the leadframe structure is co-fired with the co-fired ceramic material, and the portion integrates the leadframe structure with the co-fired ceramic material so that constituent elements of the leadframe structure and the co-fired ceramic material mix with one another, wherein the leadframe structure comprises a protruding portion (805; 900; 1105) that extends beneath the upper surface of the co-fired ceramic material and is recessed within the co-fired ceramic material. a co-fired ceramic material; and a leadframe structure, on the co-fired ceramic material, the leadframe structure including a portion thereof that integrates the leadframe structure with the co-fired ceramic material, wherein the portion of the leadframe structure is co-fired with the co-fired ceramic material, and the portion integrates the leadframe structure with the co-fired ceramic material so that constituent elements of the leadframe structure and the co-fired ceramic material mix with one another, wherein the leadframe structure comprises a protruding portion (805; 900; 1105) that extends beneath the upper surface of the co-fired ceramic material and is recessed within the co-fired ceramic material.
A connector assembly for a liquid manifold (202, 204) within a server rack, the connector assembly comprising: a pipe configured to connect to the liquid manifold (202, 204) and including a proximal end and a distal end, the pipe having a flexible portion configured to accommodate at least one of lateral or vertical manipulation of the pipe while the pipe remains connected to the liquid manifold (202, 204) at the proximal end; and a first connector and a second connector configured to form a liquid-tight connection when coupled together, wherein the first connector is connected to the distal end of the pipe and the second connector is configured to connect to a component of a plurality of components within the server rack, for supplying coolant from the liquid manifold (202, 204) to the component, characterized in that the pipe and the first connector are disposed and connected with each other along a straight line, and when the second connector is directed towards the first connector to connect to the first connector, the flexible portion is configured to accommodate a system tolerance to facilitate the liquid-tight connection between the first connector and the second connector; the first connector is configured to couple with the second connector when the component is inserted into a slot of the server rack; and when the component is inserted into a slot of the server rack, the component is disposed within the server rack along a first direction, and the pipe, the first connector and the second connector are disposed along a second direction, and the second direction is the same as the first direction. a pipe configured to connect to the liquid manifold (202, 204) and including a proximal end and a distal end, the pipe having a flexible portion configured to accommodate at least one of lateral or vertical manipulation of the pipe while the pipe remains connected to the liquid manifold (202, 204) at the proximal end; and a first connector and a second connector configured to form a liquid-tight connection when coupled together, wherein the first connector is connected to the distal end of the pipe and the second connector is configured to connect to a component of a plurality of components within the server rack, for supplying coolant from the liquid manifold (202, 204) to the component, characterized in that the pipe and the first connector are disposed and connected with each other along a straight line, and when the second connector is directed towards the first connector to connect to the first connector, the flexible portion is configured to accommodate a system tolerance to facilitate the liquid-tight connection between the first connector and the second connector; the first connector is configured to couple with the second connector when the component is inserted into a slot of the server rack; and when the component is inserted into a slot of the server rack, the component is disposed within the server rack along a first direction, and the pipe, the first connector and the second connector are disposed along a second direction, and the second direction is the same as the first direction.
A working machine comprising: a body; a ground-engaging propulsion structure supporting the body; a working arm pivotally connected to the body so as to be inclinable relative to the body, wherein the working arm is configured to mount a working implement at a distal end thereof; a drive arrangement configured to provide motive power to the ground-engaging propulsion structure; and a control system configured to determine a centre of gravity of the working machine, wherein the control system is configured to control or restrict a speed of movement of the working machine in response to the determined centre of gravity, characterised in that the control system is configured to limit the speed of movement of the working machine to a maximum speed of movement based on the determined centre of gravity, and in that the control system is configured to determine the centre of gravity of the working machine based on an angle of inclination of the working arm, and in that the maximum speed of movement is based on an angle of inclination of the working arm relative to the body. a body; a ground-engaging propulsion structure supporting the body; a working arm pivotally connected to the body so as to be inclinable relative to the body, wherein the working arm is configured to mount a working implement at a distal end thereof; a drive arrangement configured to provide motive power to the ground-engaging propulsion structure; and a control system configured to determine a centre of gravity of the working machine, wherein the control system is configured to control or restrict a speed of movement of the working machine in response to the determined centre of gravity, characterised in that the control system is configured to limit the speed of movement of the working machine to a maximum speed of movement based on the determined centre of gravity, and in that the control system is configured to determine the centre of gravity of the working machine based on an angle of inclination of the working arm, and in that the maximum speed of movement is based on an angle of inclination of the working arm relative to the body.
Method for estimating the state of charge ( SOC BAT) of a battery comprising several electrochemical cells (C 1,...C N) connected in series, the voltage across the terminals of the battery corresponding to the sum of the voltages across the terminals of each cell, called cell voltages, characterized in that it comprises the following steps: - determining, at a given moment in time, the minimum cell voltage ( U Cmin) and the maximum cell voltage ( U Cmax) from amongst said cell voltages; - on the basis of the minimum and maximum cell voltages determined in the preceding step, calculating a physical quantity ( U mp; SOC BAT) equal to the state of charge ( SOC BAT) of the battery or on which the state of charge ( SOC BAT) of the battery directly or indirectly depends, said physical quantity depending analytically, directly or indirectly, on said minimum cell voltage ( U Cmin) and on said maximum cell voltage ( U Cmax) according to an equation including weighting elements ensuring that the weighting associated with the maximum cell voltage ( U Cmax) increases when the state of charge of the associated cell increases, and the weighting associated with the minimum cell voltage ( U Cmin) increases when the state of charge of the associated cell decreases. - determining, at a given moment in time, the minimum cell voltage ( U Cmin) and the maximum cell voltage ( U Cmax) from amongst said cell voltages; - on the basis of the minimum and maximum cell voltages determined in the preceding step, calculating a physical quantity ( U mp; SOC BAT) equal to the state of charge ( SOC BAT) of the battery or on which the state of charge ( SOC BAT) of the battery directly or indirectly depends, said physical quantity depending analytically, directly or indirectly, on said minimum cell voltage ( U Cmin) and on said maximum cell voltage ( U Cmax) according to an equation including weighting elements ensuring that the weighting associated with the maximum cell voltage ( U Cmax) increases when the state of charge of the associated cell increases, and the weighting associated with the minimum cell voltage ( U Cmin) increases when the state of charge of the associated cell decreases.
Method to monitor network performance in a computer comprising at least one physical server (10,70,80) having a hardware, HW, machine attached via a hypervisor to a set of virtual machines (15,16,17), wherein the HW machine comprises a HW network interface card, NIC, and a HW clock, and a virtual machine from the set of virtual machines comprises a virtual machine NIC, the method comprising the following: - measuring delays for selected packet flows (21,22,23) in transition between the hardware machine and the virtual machines, where the delays are measured by utilizing time stamps obtained by the HW clock for at least one of incoming packets and outgoing packets of the selected packet flows (21, 22, 23) and where the time stamps include a first time stamp for a packet of the selected packet flows when the packet arrives at the HW NIC, and a second time stamp created when the packet is read from the virtual machine NIC; - determining a delay as a difference between the second time stamp and the first time stamp; and - identifying a source of network degradation by observing the delay. - measuring delays for selected packet flows (21,22,23) in transition between the hardware machine and the virtual machines, where the delays are measured by utilizing time stamps obtained by the HW clock for at least one of incoming packets and outgoing packets of the selected packet flows (21, 22, 23) and where the time stamps include a first time stamp for a packet of the selected packet flows when the packet arrives at the HW NIC, and a second time stamp created when the packet is read from the virtual machine NIC; - determining a delay as a difference between the second time stamp and the first time stamp; and - identifying a source of network degradation by observing the delay.
A satellite antenna module (12a-12c) comprising: at least one antenna element (14a-14c, 16a-16c) and a ground plane (18a-18c), wherein the antenna is disposed on the ground plane (18a-18c), wherein the ground plane (18a-18c) is configured to be capacitively coupled to a vehicle surface (22a-22c), wherein the ground plane (18a-18c) is configured to be disposed over the vehicle surface (22a-22c) at an elevation angle (θ 1 -θ 4, Δ 1, Δ 2) that achieves a higher gain of the at least one antenna element (14a-14c, 16a-16c); wherein the ground plane (18a-18c) includes a first surface (26a-26c) and a second surface (28a-28c) that are joined at a peak (30a-30c). at least one antenna element (14a-14c, 16a-16c) and a ground plane (18a-18c), wherein the antenna is disposed on the ground plane (18a-18c), wherein the ground plane (18a-18c) is configured to be capacitively coupled to a vehicle surface (22a-22c), wherein the ground plane (18a-18c) is configured to be disposed over the vehicle surface (22a-22c) at an elevation angle (θ 1 -θ 4, Δ 1, Δ 2) that achieves a higher gain of the at least one antenna element (14a-14c, 16a-16c); wherein the ground plane (18a-18c) includes a first surface (26a-26c) and a second surface (28a-28c) that are joined at a peak (30a-30c).
A method in a wireless communication terminal (303, 310, 400), the method comprising: receiving a first set of pilot signal resource elements and control information in one or more spatial layers in a first set of time symbols in a first resource block in a subframe, the first resource block spanning a first set of frequency carriers in the sub-frame; receiving a second set of pilot signal resource elements and data in one or more spatial layers in the first set of time symbols in a second resource block in the subframe, the second resource block spanning a second set of frequency carriers in the sub-frame; decoding the one or more spatial layers in which the control information is received using the first set of pilot signal resource elements, the first set of pilot signal resource elements comprising a first number of pilot signal resource elements per layer; and decoding the one or more spatial layers in which the data are received in the second resource block using the second set of pilot signal resource elements, the second set of pilot signal resource elements comprising a second number of pilot signal resource elements per layer, the second number of pilot signal resource elements present in the second resource block; wherein the first number is greater than the second number. receiving a first set of pilot signal resource elements and control information in one or more spatial layers in a first set of time symbols in a first resource block in a subframe, the first resource block spanning a first set of frequency carriers in the sub-frame; receiving a second set of pilot signal resource elements and data in one or more spatial layers in the first set of time symbols in a second resource block in the subframe, the second resource block spanning a second set of frequency carriers in the sub-frame; decoding the one or more spatial layers in which the control information is received using the first set of pilot signal resource elements, the first set of pilot signal resource elements comprising a first number of pilot signal resource elements per layer; and decoding the one or more spatial layers in which the data are received in the second resource block using the second set of pilot signal resource elements, the second set of pilot signal resource elements comprising a second number of pilot signal resource elements per layer, the second number of pilot signal resource elements present in the second resource block; wherein the first number is greater than the second number.
A multilayer structure comprising: a) one or more layers having a polymer matrix comprising 16 to 100 weight percent of one or more acrylic polymers, wherein said acrylic polymer-containing layer has a thickness of greater than 50 microns and b) one or more layers having a polymer matrix containing an alloy of 5 to 95 weight percent of one or more acrylic polymers and 5 to 95 weight percent of one or more biopolymers, said biopolymer comprises polylactic acid, and/or polyhydroxy butyrate, and a substrate layer, with said acrylic layer, or acrylic/biopolymer alloy layer, being on the outer side exposed to the environment, wherein said substrate is selected from another polymer. a) one or more layers having a polymer matrix comprising 16 to 100 weight percent of one or more acrylic polymers, wherein said acrylic polymer-containing layer has a thickness of greater than 50 microns and b) one or more layers having a polymer matrix containing an alloy of 5 to 95 weight percent of one or more acrylic polymers and 5 to 95 weight percent of one or more biopolymers, said biopolymer comprises polylactic acid, and/or polyhydroxy butyrate, and a substrate layer, with said acrylic layer, or acrylic/biopolymer alloy layer, being on the outer side exposed to the environment, wherein said substrate is selected from another polymer.