mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a plastic component by means of an injection-moulding process, which plastic component comprises a main body which comprises at least one component portion formed as a predetermined breaking region having a smaller wall thickness compared to the remaining portions of the main body, comprising the following steps: - injecting a plasticised plastic compound into a tool cavity of an injection-moulding tool in order to form the main body, wherein the tool cavity is dimensioned such that the region on the main-body side in which the component portion is to be formed is formed so as to have an excess wall thickness; - moving at least one slider element on the injection-moulding tool side towards the region on the main-body side in which the component portion is to be formed in order to form the component portion in such a way that the wall thickness is reduced to the wall thickness that is smaller compared to the remaining portions of the main body; - cooling and removing the plastic component from the tool cavity, wherein besides the component portion which is formed as the predetermined breaking region, at least one further component portion which is formed as an integral hinge is formed, wherein the wall thickness of the further component portion which is formed as an integral hinge is between the wall thickness of the component portion which is formed as the predetermined breaking region and the wall thickness of the remaining portions of the main body, characterised in that the component portion which is formed as the predetermined breaking region and the component portion which is formed as the integral hinge collectively define a flap region on the main-body side. - injecting a plasticised plastic compound into a tool cavity of an injection-moulding tool in order to form the main body, wherein the tool cavity is dimensioned such that the region on the main-body side in which the component portion is to be formed is formed so as to have an excess wall thickness; - moving at least one slider element on the injection-moulding tool side towards the region on the main-body side in which the component portion is to be formed in order to form the component portion in such a way that the wall thickness is reduced to the wall thickness that is smaller compared to the remaining portions of the main body; - cooling and removing the plastic component from the tool cavity, wherein besides the component portion which is formed as the predetermined breaking region, at least one further component portion which is formed as an integral hinge is formed, wherein the wall thickness of the further component portion which is formed as an integral hinge is between the wall thickness of the component portion which is formed as the predetermined breaking region and the wall thickness of the remaining portions of the main body, characterised in that the component portion which is formed as the predetermined breaking region and the component portion which is formed as the integral hinge collectively define a flap region on the main-body side.
An illumination device comprising a number of light sources generating light, said light sources being arranged on a heat sink, said heat sink comprises a first cooling plate and a second cooling plate, where a first part of said light sources are arrange on said first cooling plate and where a second part of said light sources are arranged on said second cooling plate, where said first cooling plate and said second cooling plate are separated by a distance and where a flow channel is defined between said first cooling plate and said second cooling plate, said flow channel allowing cooling fluid to flow between said first cooling plate and said second cooling plate; said heat sink comprises further a number of light passages allowing light to propagate from said second cooling plate and towards said first cooling plate and further through said first cooling plate, wherein at least one of said light passages comprises at least one aperture in said first cooling plate, characterized in that at least one of said light passages comprises a light guide, said light guide being adapted to collect at least a part of said light generate by said second part of said light sources and to transmit said collected light through flow channel and said first cooling plate, wherein the illumination device further comprises fluid forcing means adapted to force said cooling fluid through said flow channel.
A method for updating a first computing device, the method comprising: receiving a list of available updates; determining a needed update from the list of available updates, wherein the needed update is segmented into a plurality of pieces (409, 411); wherein each piece (409, 411) is divided into sub-pieces (413, 415) and each sub-piece (413, 415) is divided into sub-sub-pieces (417, 419); updating the software of the first computing device utilizing the downloaded sub-sub-pieces (417, 419) characterized in that the method further comprises receiving a peer list of computing devices, wherein the list of computing devices identifies, for each piece (409, 411) of the plurality of pieces (409, 411), at least one computing device that makes that piece (409, 411) available for download; wherein the peer list includes an identification of all peers (421, 423) that make a sub-sub-piece (417, 419) available for download; downloading each sub-sub-piece (417, 419) of the plurality of pieces (409, 411) from a plurality of computing devices, wherein at least two of the plurality of sub-sub-pieces (417, 419) are downloaded from different computing devices; and during download of sub-sub-pieces (417, 419), the peer list is periodically updated to ensure that the client is requesting downloads for available peers (421, 423). receiving a list of available updates; determining a needed update from the list of available updates, wherein the needed update is segmented into a plurality of pieces (409, 411); wherein each piece (409, 411) is divided into sub-pieces (413, 415) and each sub-piece (413, 415) is divided into sub-sub-pieces (417, 419); updating the software of the first computing device utilizing the downloaded sub-sub-pieces (417, 419) characterized in that the method further comprises receiving a peer list of computing devices, wherein the list of computing devices identifies, for each piece (409, 411) of the plurality of pieces (409, 411), at least one computing device that makes that piece (409, 411) available for download; wherein the peer list includes an identification of all peers (421, 423) that make a sub-sub-piece (417, 419) available for download; downloading each sub-sub-piece (417, 419) of the plurality of pieces (409, 411) from a plurality of computing devices, wherein at least two of the plurality of sub-sub-pieces (417, 419) are downloaded from different computing devices; and during download of sub-sub-pieces (417, 419), the peer list is periodically updated to ensure that the client is requesting downloads for available peers (421, 423).
A downhole flow device for controlling a flow of fluid between an annulus and an inner bore of a well tubular metal structure arranged in a borehole, comprising: - a tubular part comprising a first opening and an axial extension, and - a sliding sleeve configured to slide within the tubular part between a first position covering the opening and a second position fully uncovering the opening, the tubular part comprising a first groove and a second groove, the first groove being arranged at a first distance (di) from the second groove along the axial extension, and the sliding sleeve comprising a projecting part configured to engage the first groove in the first position and the second groove in the second position, characterised in that the tubular part comprises a third groove configured to be engaged by the projecting part and having a second distance (d 2) to the second groove which is smaller than the first distance, wherein the first groove, the second groove and the third groove are arranged in order so that the first groove is arranged next to the second groove, and the third groove is arranged next to the second groove along the axial extension. - a tubular part comprising a first opening and an axial extension, and - a sliding sleeve configured to slide within the tubular part between a first position covering the opening and a second position fully uncovering the opening, the tubular part comprising a first groove and a second groove, the first groove being arranged at a first distance (di) from the second groove along the axial extension, and the sliding sleeve comprising a projecting part configured to engage the first groove in the first position and the second groove in the second position, characterised in that the tubular part comprises a third groove configured to be engaged by the projecting part and having a second distance (d 2) to the second groove which is smaller than the first distance, wherein the first groove, the second groove and the third groove are arranged in order so that the first groove is arranged next to the second groove, and the third groove is arranged next to the second groove along the axial extension.
A dialysis machine for estimating absolute blood volume, the dialysis machine comprising: an injector to inject a predetermined volume of dilution indicator liquid into a blood stream of a patient; a receiver to obtain, from a sensor, a series of measurements of hemoconcentration of at least one blood characteristic of the patient over a time period, the series of measurements including a hemoconcentration at a dilution test time during the time period, and the series of measurements of hemoconcentration based on blood volume compared to the predetermined volume of dilution indicator liquid; characterised in that the dialysis machine comprises memory including instructions, which when executed by a processor of the dialysis machine, cause the processor to: estimate parameters for a physiological model based on the series of measurements, the parameters including the hemoconcentration at the dilution test time, a volume of a first compartment and a volume of a second compartment at the dilution test time and at a dilution injection time of the time period; and determine an absolute blood volume of the patient at the specified time using the physiological model and the series of measurements of hemoconcentration; and a display portion to display the absolute blood volume. an injector to inject a predetermined volume of dilution indicator liquid into a blood stream of a patient; a receiver to obtain, from a sensor, a series of measurements of hemoconcentration of at least one blood characteristic of the patient over a time period, the series of measurements including a hemoconcentration at a dilution test time during the time period, and the series of measurements of hemoconcentration based on blood volume compared to the predetermined volume of dilution indicator liquid; characterised in that the dialysis machine comprises memory including instructions, which when executed by a processor of the dialysis machine, cause the processor to: estimate parameters for a physiological model based on the series of measurements, the parameters including the hemoconcentration at the dilution test time, a volume of a first compartment and a volume of a second compartment at the dilution test time and at a dilution injection time of the time period; and determine an absolute blood volume of the patient at the specified time using the physiological model and the series of measurements of hemoconcentration; and estimate parameters for a physiological model based on the series of measurements, the parameters including the hemoconcentration at the dilution test time, a volume of a first compartment and a volume of a second compartment at the dilution test time and at a dilution injection time of the time period; and determine an absolute blood volume of the patient at the specified time using the physiological model and the series of measurements of hemoconcentration; and a display portion to display the absolute blood volume.
A hydraulic system for lifting structure of tower crane, used to drive a climbing frame of the tower crane to ascend or descend on a tower body of the tower crane, characterized in that: the hydraulic system comprises a plurality of cylinders, which are connected to lifting beams and upper beams of the tower crane respectively; wherein, each of the cylinders has a forward branch working oil circuit and a reversed branch working oil circuit, the forward branch working oil circuit of each cylinder has a forward speed regulator valve used to regulate the flow rate of hydraulic oil in the forward direction, and the reversed branch working oil circuit of each cylinder has a reversed speed regulator valve used to regulate the flow rate of hydraulic oil in the reversed direction. the hydraulic system comprises a plurality of cylinders, which are connected to lifting beams and upper beams of the tower crane respectively; wherein, each of the cylinders has a forward branch working oil circuit and a reversed branch working oil circuit, the forward branch working oil circuit of each cylinder has a forward speed regulator valve used to regulate the flow rate of hydraulic oil in the forward direction, and the reversed branch working oil circuit of each cylinder has a reversed speed regulator valve used to regulate the flow rate of hydraulic oil in the reversed direction.
Battery pack, comprising a housing of gas-tight design in which at least one battery module having at least one battery cell is arranged, wherein the housing comprises two parallel side walls and two parallel front walls, which parallel walls are connected to one another and form a frame, and wherein the frame comprises a separating wall which runs parallel to the side walls, and also a cooling system for cooling the at least one battery cell, wherein the cooling system comprises at least one cooling plate which is arranged outside the housing, wherein the at least one cooling plate bears flat against a covering plate of the housing, and wherein heat is dissipated from the at least one battery cell, through the covering plate, to the cooling plate.
A method for the effective regulation of thermosolar systems for maximizing solar yields and energy-efficient operation of the installation, comprising at least one motor-driven pump (5,41), a plurality of temperature sensors (3,9,45), and a flow sensor a motor driven valve operating as a change-over or mixing valve, a check valve and a connecting line between the feed line (25, 27) and the return line (26, 28) for separating the system into two operating circuits, characterized in that - the motor-driven pumps (5, 41) with integrated or external control electronics are driven as active control elements by synchronous motors; in which - the control electronics using an integrated heat quantity meter with the temperature sensors (3, 9) and the flow sensor, taking into account the specific heat quantity of a glycol fraction in the carrier medium; in which - the heat quantity is used as a control variable for the active control element; and the engine valve operating as a change-over or mixing valve is designed as a three-way valve; and - the check valve (10,44) is arranged in the return line; and - the flow sensor is arranged in the return line; and - a pressure sensor is arranged in the flow line and a pressure sensor is arranged in the return line; and - the connecting line (78, 78 ') is arranged between the motor valve and the check valve (10, 44). - the motor-driven pumps (5, 41) with integrated or external control electronics are driven as active control elements by synchronous motors; in which - the control electronics using an integrated heat quantity meter with the temperature sensors (3, 9) and the flow sensor, taking into account the specific heat quantity of a glycol fraction in the carrier medium; in which - the heat quantity is used as a control variable for the active control element; and the engine valve operating as a change-over or mixing valve is designed as a three-way valve; and - the check valve (10,44) is arranged in the return line; and - the flow sensor is arranged in the return line; and - a pressure sensor is arranged in the flow line and a pressure sensor is arranged in the return line; and - the connecting line (78, 78 ') is arranged between the motor valve and the check valve (10, 44).
A web having a first surface and a second surface opposite to the first surface comprising: a) a plurality of discrete extended elements extending outwardly from the first surface, the discrete extended elements having open proximal ends, open distal ends and side walls, b) a plurality of macro apertures having a major axis dimension and a minor axis dimension and being arranged in a staggered pattern, c) a plurality of first regions, each of the first regions being surrounded by four distinctive second regions, the four distinctive second regions being connected by two adjacent macro apertures located in a first direction and another two adjacent macro apertures located in a second direction which is orthogonal to the first direction, d) a plurality of second regions, each of the second regions being surrounded by two adjacent first regions and two adjacent macro apertures located along a third direction or a fourth direction, wherein the third direction and the fourth direction are not parallel to either the first direction or to the second direction, wherein the second regions comprise a second top plane having a length less than or equal to 0.9 mm between the two adjacent macro apertures as measured according to Top Plane length Measurement. a) a plurality of discrete extended elements extending outwardly from the first surface, the discrete extended elements having open proximal ends, open distal ends and side walls, b) a plurality of macro apertures having a major axis dimension and a minor axis dimension and being arranged in a staggered pattern, c) a plurality of first regions, each of the first regions being surrounded by four distinctive second regions, the four distinctive second regions being connected by two adjacent macro apertures located in a first direction and another two adjacent macro apertures located in a second direction which is orthogonal to the first direction, d) a plurality of second regions, each of the second regions being surrounded by two adjacent first regions and two adjacent macro apertures located along a third direction or a fourth direction, wherein the third direction and the fourth direction are not parallel to either the first direction or to the second direction,
A system for transporting IP data in a Distributed Antenna System, the system comprising: at least one Digital Access Units, DAU, having a plurality of optical input/output ports and at least one Ethernet port; a plurality of Digital Remote Units, DRUs, coupled to the at least one DAU, wherein each of the plurality of DRUs has a plurality of optical input/output ports and at least one Ethernet port; wherein the at least one DAU includes: a Framer/Deframer operable to separate cellular payload data from IP data; and a network switch operable to buffer the cellular payload data and the IP data, to scan the IP data, and to route the IP data received from the plurality of DRUs to the at least one Ethernet port of the at least one DAU, wherein scanning is prioritized between the IP data and the cellular payload data. at least one Digital Access Units, DAU, having a plurality of optical input/output ports and at least one Ethernet port; a plurality of Digital Remote Units, DRUs, coupled to the at least one DAU, wherein each of the plurality of DRUs has a plurality of optical input/output ports and at least one Ethernet port; wherein the at least one DAU includes: a Framer/Deframer operable to separate cellular payload data from IP data; and a network switch operable to buffer the cellular payload data and the IP data, to scan the IP data, and to route the IP data received from the plurality of DRUs to the at least one Ethernet port of the at least one DAU, a Framer/Deframer operable to separate cellular payload data from IP data; and a network switch operable to buffer the cellular payload data and the IP data, to scan the IP data, and to route the IP data received from the plurality of DRUs to the at least one Ethernet port of the at least one DAU, wherein scanning is prioritized between the IP data and the cellular payload data.
A suction-side hydraulic automatic swimming pool cleaner configured in use for travelling along a surface to be cleaned, comprising: a. a body having a water inlet and a water outlet and b. a flexible disc (i) directly or indirectly connected to the body and (ii) configured to contact the surface in use, characterised in that the body (i) comprises a fitting for rotatably attaching a hose at the water outlet of said body, the hose in use conveying water exiting the water outlet to a debris filter and (ii) in use defines a water flow path therethrough which between the water inlet and the water outlet is generally perpendicular to the surface. a. a body having a water inlet and a water outlet and b. a flexible disc (i) directly or indirectly connected to the body and (ii) configured to contact the surface in use,
A drug delivery device for administering a predefined dose of a medicament comprising a housing having: - a body to accommodate a drive mechanism, - a cartridge holder to accommodate a cartridge having a piston slidably disposed therein in an axial direction (z), - an interconnection between cartridge holder and body, said interconnection having at least one displaceable or resiliently deformable latch element (68; 74; 82) to mate with a corresponding bearing, wherein the latch element (68; 74; 82) is displaceable or deformable in a direction (z, w) extending substantially parallel to a circumferential side wall (52, 65) of the body or cartridge holder, wherein cartridge holder and body comprise an insert portion and a corresponding receptacle portion for establishing an at least partially interleaved interconnection of cartridge holder and body, characterized in that - the receptacle portion comprises the at least one bearing extending in a lateral plane (x, y) with respect to a tubular shape (i.e. perpendicular to the axial direction) of cartridge holder and/or body and extending radially inwardly from an inside facing side wall section of the receptacle portion, and wherein - the bearing comprises at least one axial through opening to receive the latch element (68; 74; 82). - a body to accommodate a drive mechanism, - a cartridge holder to accommodate a cartridge having a piston slidably disposed therein in an axial direction (z), - an interconnection between cartridge holder and body, said interconnection having at least one displaceable or resiliently deformable latch element (68; 74; 82) to mate with a corresponding bearing, wherein the latch element (68; 74; 82) is displaceable or deformable in a direction (z, w) extending substantially parallel to a circumferential side wall (52, 65) of the body or cartridge holder, wherein cartridge holder and body comprise an insert portion and a corresponding receptacle portion for establishing an at least partially interleaved interconnection of cartridge holder and body, characterized in that - the receptacle portion comprises the at least one bearing extending in a lateral plane (x, y) with respect to a tubular shape (i.e. perpendicular to the axial direction) of cartridge holder and/or body and extending radially inwardly from an inside facing side wall section of the receptacle portion, and wherein - the bearing comprises at least one axial through opening to receive the latch element (68; 74; 82).