mhurhangee/ep-ind-claims huggingface dataset:
Carrier for providing an end of at least one cleaning element to a mold cavity for over-molding the end with a plastic material, said carrier comprising a main body having a first surface comprising one or more openings of one or more blind holes having a depth for carrying the at least one cleaning element and a second surface being substantially parallel to the first surface, wherein the main body comprises at least two partial bodies which are arranged adjacent to each other in the direction of the one or more blind holes so that at least one partial body (14.1, 14.2, 14.3) comprises one or more through-holes as part of the one or more blind holes and one partial body (14.4, 14.5) comprising the second surface of the main body comprises the blind end of the one or more blind-holes, wherein a cross-sectional area of the one or more blind holes increases in the direction of the blind end of the one or more blind holes.
A method for providing fine grained control over a maximum segment size of a transport layer connection, comprising: receiving, by a device intermediary to a plurality of clients and a plurality of servers, a request to establish a transport layer connection on a virtual local area network, VLAN, via a VLAN interface to which the VLAN is assigned; identifying, by a packet engine of the device, a first maximum segment size, MSS, value based on a maximum transmission unit, MTU, value of the VLAN interface to which the VLAN is assigned responsive to the request to establish a transport layer connection received on the VLAN via the VLAN interface; determining, by the packet engine of the device, that a difference between an MTU value of the VLAN and a predetermined header size is less than the first MSS value; updating, by the packet engine of the device, responsive to the determination, the first MSS value to a second MSS value corresponding to the difference between the MTU value of the VLAN and the predetermined header size; determining, by the packet engine of the device, that an MSS value specified by a profile configured for a virtual server of the device that is establishing the transport layer connection is less than the second MSS value; updating, by the packet engine of the device, the second MSS value to the MSS value of the profile responsive to determining that the MSS value specified by the profile is less than the second MSS value; and providing, by the packet engine, a response to the request including the second MSS value. receiving, by a device intermediary to a plurality of clients and a plurality of servers, a request to establish a transport layer connection on a virtual local area network, VLAN, via a VLAN interface to which the VLAN is assigned; identifying, by a packet engine of the device, a first maximum segment size, MSS, value based on a maximum transmission unit, MTU, value of the VLAN interface to which the VLAN is assigned responsive to the request to establish a transport layer connection received on the VLAN via the VLAN interface; determining, by the packet engine of the device, that a difference between an MTU value of the VLAN and a predetermined header size is less than the first MSS value; updating, by the packet engine of the device, responsive to the determination, the first MSS value to a second MSS value corresponding to the difference between the MTU value of the VLAN and the predetermined header size; determining, by the packet engine of the device, that an MSS value specified by a profile configured for a virtual server of the device that is establishing the transport layer connection is less than the second MSS value; updating, by the packet engine of the device, the second MSS value to the MSS value of the profile responsive to determining that the MSS value specified by the profile is less than the second MSS value; and providing, by the packet engine, a response to the request including the second MSS value.
A sample analyzer for analyzing a sample, comprising: a measurement section adapted to measure the sample and including a sensor (10s, 20s, 30s, 40s, 50s, 60s, 80sa, 80sb, 90s, 100s, 120s) adapted to detect status of the sample analyzer including error status; a display; and a controller adapted to control the display so as to display a measurement section help window when the sensor (10s, 20s, 30s, 40s, 50s, 60s, 80sa, 80sb, 90s, 100s, 120s) detects the error status, wherein the measurement section help window is adapted to display recovery information for recovering the sample analyzer from the error status, characterised in that the measurement section help window is further adapted to display an abnormal place button, the controller is adapted to control the display so as to display an abnormal place dialogue with the measurement section help window when the abnormal place button is selected, and the abnormal place dialogue is adapted to display a error-occurring place image regarding a place where the error status has occurred. a measurement section adapted to measure the sample and including a sensor (10s, 20s, 30s, 40s, 50s, 60s, 80sa, 80sb, 90s, 100s, 120s) adapted to detect status of the sample analyzer including error status; a display; and a controller adapted to control the display so as to display a measurement section help window when the sensor (10s, 20s, 30s, 40s, 50s, 60s, 80sa, 80sb, 90s, 100s, 120s) detects the error status, wherein the measurement section help window is adapted to display recovery information for recovering the sample analyzer from the error status, characterised in that the measurement section help window is further adapted to display an abnormal place button, the controller is adapted to control the display so as to display an abnormal place dialogue with the measurement section help window when the abnormal place button is selected, and the abnormal place dialogue is adapted to display a error-occurring place image regarding a place where the error status has occurred.
Peritoneal dialysis fluid comprising a compound inhibiting glycogen synthase kinase -3 activity, in particular -3β activity, for use in the prevention of infectious and non-infectious peritoneal complications caused by treatment with a peritoneal dialysis fluid, wherein these complications are selected from peritonitis, peritoneal membrane injury, damage and failure, barrier dysfunction and mesothelial cell detachment.
An obstacle sensing system including a transmission part that is installed in a moving body and that emits laser light beams while changing an emission angle and a reception part that receives reflected light beams of the laser light beams, characterized in that the obstacle sensing system comprises: a sensing region setting mechanism that sets a sensing region in advance in a region around reflection positions where the laser light beams are reflected when an obstacle is absent; a determination mechanism that determines whether an obstacle is present or absent depending on the reflected light beams reflected inside the sensing region; characterized in that the obstacle sensing system comprises a comparison mechanism that sends ON signals to the determination mechanism when the reflection positions where the laser light beams are reflected are inside the sensing region and sends OFF signals to the determination mechanism when the reflection positions where the laser light beams are reflected are outside the sensing region, and the determination mechanism has a configuration that calculates a fullness percentage which is a ratio of the number of the ON signals to a total number of the ON signals and the OFF signals obtained from the comparison mechanism, determines that an obstacle is absent when the fullness percentage is equal to or more than a predetermined threshold, and determines that an obstacle is present when the fullness percentage is smaller than the threshold. a sensing region setting mechanism that sets a sensing region in advance in a region around reflection positions where the laser light beams are reflected when an obstacle is absent; a determination mechanism that determines whether an obstacle is present or absent depending on the reflected light beams reflected inside the sensing region; characterized in that the obstacle sensing system comprises a comparison mechanism that sends ON signals to the determination mechanism when the reflection positions where the laser light beams are reflected are inside the sensing region and sends OFF signals to the determination mechanism when the reflection positions where the laser light beams are reflected are outside the sensing region, and the determination mechanism has a configuration that calculates a fullness percentage which is a ratio of the number of the ON signals to a total number of the ON signals and the OFF signals obtained from the comparison mechanism, determines that an obstacle is absent when the fullness percentage is equal to or more than a predetermined threshold, and determines that an obstacle is present when the fullness percentage is smaller than the threshold.
A reconfigurable modular antenna system comprising: a first module comprising at least a first part of a first antenna system; a second replaceable module comprising at least a second part of the first antenna system and a part of a second antenna system; and an interconnect between the first module and the second replaceable module that couples the first part of the first antenna system to the second part of the first antenna system to form the first antenna system, wherein the first antenna system is configured to operate in a first frequency band and the second antenna system is configured to operate in a second frequency band, different to the first frequency band, wherein the second replaceable module comprises radiator elements of the first antenna system that are interleaved with radiator elements of the second antenna system (100, 72L, 72H), and wherein the interleaving of radiator elements comprises a first array of groups of higher frequency radiator elements, each group of higher frequency radiator elements being configured to lie, within surrounding conductive separation walls, on different arms of virtual cross motifs aligned with and inclined at 45° to a common axis; and a second array of groups of lower frequency radiator elements, each group of lower frequency radiator elements being configured to lie, outside one of the surrounding conductive separation walls, on different arms of virtual cross motifs aligned with and inclined at 45° to the common axis. a first module comprising at least a first part of a first antenna system; a second replaceable module comprising at least a second part of the first antenna system and a part of a second antenna system; and an interconnect between the first module and the second replaceable module that couples the first part of the first antenna system to the second part of the first antenna system to form the first antenna system, wherein the first antenna system is configured to operate in a first frequency band and the second antenna system is configured to operate in a second frequency band, different to the first frequency band, wherein the second replaceable module comprises radiator elements of the first antenna system that are interleaved with radiator elements of the second antenna system (100, 72L, 72H), and wherein the interleaving of radiator elements comprises a first array of groups of higher frequency radiator elements, each group of higher frequency radiator elements being configured to lie, within surrounding conductive separation walls, on different arms of virtual cross motifs aligned with and inclined at 45° to a common axis; and a second array of groups of lower frequency radiator elements, each group of lower frequency radiator elements being configured to lie, outside one of the surrounding conductive separation walls, on different arms of virtual cross motifs aligned with and inclined at 45° to the common axis.
A system for hot water generation, comprising a hot water storage tank and at least one first and at least one second resistive heating rods (3, 30, 4, 40) for heating the water located in the hot water storage tank, and a storage tank temperature sensor and a control unit by means of which said at least one first resistive heating rod is connectable with an alternating voltage source, wherein said system comprises a photovoltaic device for generating a direct voltage and wherein said photovoltaic device is connectable with said at least one second resistive heating rod (4, 40) through said control unit and optionally at least one further control unit, said at least one first resistive heating rod (3, 30) and said alternating voltage source are galvanically separated from said at least one second resistive heating rod (4, 40) and said photovoltaic device, characterized in that said at least one first and said at least one second resistive heating rods (3, 4) are attached to a common attachment flange and form a heating cartridge which, in its attached state, protrudes into the hot water storage tank, and in that said control unit is located in a housing which is connected to the attachment flange, preferably on the outside of the hot water storage tank, or is integrally formed therewith.
A method, said method comprising: multicasting a plurality of data units; and multicasting a request for acknowledging receipt of said plurality of data units. initializing a request counter; setting a timer; incrementing said request counter; decrementing said timer; receiving signals responsive to said request; determining if said signals responsive to said request have been received from a pre-determined number of receivers of said request; determining if said timer has expired prior to receiving said signals from said predetermined number of receivers; determining reception status of said plurality of data units based on said signals; determining whether said request counter has exceeded a retry limit; updating said request for acknowledgment of said plurality of data units responsive to said determination; removing any identification of receivers from which said signals responsive to said request for acknowledgment have been received; and re-multicasting said request for acknowledgement, wherein said identification is one of an association identifier, a media access control address, an internet protocol address and contained within a bitmap arrangement. multicasting a plurality of data units; and multicasting a request for acknowledging receipt of said plurality of data units. initializing a request counter; setting a timer; incrementing said request counter; decrementing said timer; receiving signals responsive to said request; determining if said signals responsive to said request have been received from a pre-determined number of receivers of said request; determining if said timer has expired prior to receiving said signals from said predetermined number of receivers; determining reception status of said plurality of data units based on said signals; determining whether said request counter has exceeded a retry limit; updating said request for acknowledgment of said plurality of data units responsive to said determination; removing any identification of receivers from which said signals responsive to said request for acknowledgment have been received; and re-multicasting said request for acknowledgement, wherein said identification is one of an association identifier, a media access control address, an internet protocol address and contained within a bitmap arrangement.
A positive-electrode material for a lithium ion secondary battery, the positive-electrode material containing a lithium complex compound represented by the following Formula and having an atomic ratio Ti 3+ /Ti 4+ between Ti 3+ and Ti 4+, as determined through X-ray photoelectron spectroscopy, of greater than or equal to 1.5 and less than or equal to 20: Li 1+a Ni b Mn c Co d Ti e M f O 2+α..., where in the Formula, M is at least one element selected from the group consisting of Mg, Al, Zr, Mo, and Nb, and a, b, c, d, e, f, and α are numbers satisfying -0.1 ≤ a ≤ 0.2, 0.7 < b ≤ 0.9, 0 ≤ c < 0.3, 0 ≤ d < 0.3, 0 < e ≤ 0.25, 0 ≤ f < 0.3, b + c + d + e + f = 1, and -0.2 ≤ α ≤ 0.2.
Generator for use in a direct current ablation procedure, comprising: - at least one indifferent lead and at least one catheter lead (10a-c) for connecting an indifferent electrode and a catheter provided with at least one electrode; - a charging unit arranged to charge an amount of electrical energy and to discharge an electrical pulse of a predetermined magnitude between the two electrode leads (10a-c, 16); - a power supply arranged to supply electrical energy to the charging unit; - an input unit arranged for inputting the magnitude of the pulse; - a measuring unit arranged between the leads (10a-c, 16) for measuring at least one electrical property between the leads (10a-c, 16), wherein the measuring unit is arranged to determine the impedance between the leads (10a-c, 16) prior to discharge of the pulse, and; - a control unit which is arranged to adjust the magnitude of the electrical pulse discharged by the charging unit on the basis of the measured impedance by the measuring unit. - at least one indifferent lead and at least one catheter lead (10a-c) for connecting an indifferent electrode and a catheter provided with at least one electrode; - a charging unit arranged to charge an amount of electrical energy and to discharge an electrical pulse of a predetermined magnitude between the two electrode leads (10a-c, 16); - a power supply arranged to supply electrical energy to the charging unit; - an input unit arranged for inputting the magnitude of the pulse; - a measuring unit arranged between the leads (10a-c, 16) for measuring at least one electrical property between the leads (10a-c, 16), wherein the measuring unit is arranged to determine the impedance between the leads (10a-c, 16) prior to discharge of the pulse, and; - a control unit which is arranged to adjust the magnitude of the electrical pulse discharged by the charging unit on the basis of the measured impedance by the measuring unit.
A system for simplifying the management of one or more devices over a computer network, the system comprising one or more devices operably coupled to a computer network and a management server operably coupled to the computer network; wherein each of the devices comprises a set of instructions executable by device hardware and stored in a device non-transitory storage medium (22, 36, 48, 54, 52) that, when executed, cause the device hardware to implement a management agent configured to communicate according to a management protocol; wherein the management server comprises a set of instructions executable by the server hardware and stored in the server non-transitory storage medium, the set of instructions when executed, cause the server hardware to implement: a management module configured to communicate to the management agent implemented by a said device according to the management protocol; CHARACTERISED BY: said management module is configured to associate the management agent implemented by the device with identification data of the device and with user data related to a user of the device, wherein the association links the user data to a plurality of devices, said management module is configured to receive a policy and to identify a user for whom the policy is to be applied, to select a management agent for each device associated with the user data and to send a policy instruction to each of the selected management agents, wherein each of the selected managements agents is configured to apply the policy instruction to the one or more devices associated with itself. a management module configured to communicate to the management agent implemented by a said device according to the management protocol; CHARACTERISED BY: said management module is configured to associate the management agent implemented by the device with identification data of the device and with user data related to a user of the device, wherein the association links the user data to a plurality of devices, said management module is configured to receive a policy and to identify a user for whom the policy is to be applied, to select a management agent for each device associated with the user data and to send a policy instruction to each of the selected management agents, wherein each of the selected managements agents is configured to apply the policy instruction to the one or more devices associated with itself.
A holding structure for holding a microphone, comprising: a chassis configured to be separated into at least a first chassis and a second chassis; an elastic member formed of an elastic material, and including a holding unit configured to hold the microphone and an attachment portion provided in a periphery of the holding unit; and a retention member fixed to the first chassis by the second chassis in a state where the second chassis is attached to the first chassis, configured to retain the attachment portion at a predetermined position on the first chassis, characterized in that the first chassis includes a first rib portion (504a, 504b) configured to attach the retention member, and a projection portion, wherein the retention member includes a claw portion (308a, 308b) corresponding to the first rib portion (504a, 504b) and a notch portion corresponding to the projection portion, and wherein a gap is provided between the holding unit and the chassis and the retention member, thereby retaining the microphone in a floating state. a chassis configured to be separated into at least a first chassis and a second chassis; an elastic member formed of an elastic material, and including a holding unit configured to hold the microphone and an attachment portion provided in a periphery of the holding unit; and a retention member fixed to the first chassis by the second chassis in a state where the second chassis is attached to the first chassis, configured to retain the attachment portion at a predetermined position on the first chassis,
A mixture of fluoroalkyl alcohol-unsaturated carboxylic acid derivatives represented by the general formulae: CF 3 (CF 2) n (CH=CF) a (CF 2 CF 2) b (CH 2 CH 2) c OCOCR=CH 2 [Ia] and CF 3 (CF 2) n-1 (CF=CH) a CF 2 (CF 2 CF 2) b (CH 2 CH 2) c OCOCR=CH 2 [Ib] wherein R is a hydrogen atom or a methyl group, n is an integer of 1 to 5, a is an integer of 1 to 4, b is an integer of 0 to 3, and c is an integer of 1 to 3.
Extrusion device for forming a tubular plastic inner layer of a multi-layer composite tube having an extrusion nozzle made from metal, the tubular outer surface of which, adjacent to the outlet end in regions, serves as a counter bearing for a laser welding device for the longitudinal welding of a metal foil surrounding the plastic inner layer, characterised in that the region of the extrusion nozzle serving as a counter bearing comprises a recess in the outer wall in which an inlet made from a material which absorbs and/or reflects laser beams is received, wherein the inlet consists of graphite or of ceramic, tungsten, titanium, niobium, silver, gold or copper or of sintered materials.