mhurhangee/ep-ind-claims huggingface dataset:
An electric valve comprising: a body (12, 21, 40, 50) made of metal including a rotor compartment accommodating a rotor of a motor that is a drive source of a valve element, and a valve element compartment accommodating the valve element and communicating with a valve port; an inner part made of resin disposed inside the body (12, 21, 40, 50) and separating the rotor compartment from the valve element compartment; and a shaft passing through a through hole extending through the inner part, rotating with the rotor, and including the valve element disposed in a tip of the shaft, rotation of the rotor being converted to linear motion of the valve element by engagement between respective threads (60N, 70N) formed in the through hole and the shaft, wherein the inner part is press-fitted and fixed in a press-fit reception portion between the rotor compartment and the valve element compartment inside the body (12, 21, 40, 50), the inner part is formed with an uneven portion on an outer surface of the inner part, which forms a gap between the inner part and an inner surface of the body (12, 21, 40, 50) so that the rotor compartment and the valve element compartment communicate with each other, and the body (12, 21, 40, 50) is formed with a positioning step surface (40D, 50D) inside that sets the inner part in position in a direction of a rotating axis of the rotor. a body (12, 21, 40, 50) made of metal including a rotor compartment accommodating a rotor of a motor that is a drive source of a valve element, and a valve element compartment accommodating the valve element and communicating with a valve port; an inner part made of resin disposed inside the body (12, 21, 40, 50) and separating the rotor compartment from the valve element compartment; and a shaft passing through a through hole extending through the inner part, rotating with the rotor, and including the valve element disposed in a tip of the shaft, rotation of the rotor being converted to linear motion of the valve element by engagement between respective threads (60N, 70N) formed in the through hole and the shaft, wherein the inner part is press-fitted and fixed in a press-fit reception portion between the rotor compartment and the valve element compartment inside the body (12, 21, 40, 50), the inner part is formed with an uneven portion on an outer surface of the inner part, which forms a gap between the inner part and an inner surface of the body (12, 21, 40, 50) so that the rotor compartment and the valve element compartment communicate with each other, and the body (12, 21, 40, 50) is formed with a positioning step surface (40D, 50D) inside that sets the inner part in position in a direction of a rotating axis of the rotor.
A User Datagram Protocol, UDP, -based control command transmission method, the method comprising: Step 1: sending, by a sender, a control command packet to a plurality of receivers, in broadcast or multicast mode, via UDP; and Step 2: sending, by at least one of the plurality of receivers, an Acknowledgement, ACK, packet to the sender, in broadcast or multicast mode, via UDP after having successfully received the control command packet; wherein Step 1 further comprises: appending, by the sender, a command Identifier, ID, which uniquely identifies the control command packet, and a group ID, into the control command packet for sending; wherein Step 2 further comprises: appending, by the at least one of the plurality of receivers, the command ID and the group ID consistent with those in the received control command packet into the ACK packet for sending; and wherein Step 2 further comprises: appending, by the at least one of the plurality of receivers, a unique identifier of the receiver into the ACK packet for sending, the unique identifier of the receiver distinguishing the receiver which sends the ACK packet. Step 1: sending, by a sender, a control command packet to a plurality of receivers, in broadcast or multicast mode, via UDP; and Step 2: sending, by at least one of the plurality of receivers, an Acknowledgement, ACK, packet to the sender, in broadcast or multicast mode, via UDP after having successfully received the control command packet; wherein Step 1 further comprises: appending, by the sender, a command Identifier, ID, which uniquely identifies the control command packet, and a group ID, into the control command packet for sending; wherein Step 2 further comprises: appending, by the at least one of the plurality of receivers, the command ID and the group ID consistent with those in the received control command packet into the ACK packet for sending; and wherein Step 2 further comprises: appending, by the at least one of the plurality of receivers, a unique identifier of the receiver into the ACK packet for sending, the unique identifier of the receiver distinguishing the receiver which sends the ACK packet.
A prosthesis system comprising: - a monoblock stem extension comprising: - a proximal portion having a first neutral axis; and - a distal portion defined by a longitudinal cylindrical shaft having a second neutral axis, wherein the second neutral axis is parallel and offset by a distance α from the first neutral axis; and - an eccentric bushing arranged coaxial around the cylindrical shaft of the monoblock stem extension, the eccentric bushing comprising: - an external cylindrical shaft having a third neutral axis; and - an internal cylinder having a fourth neutral axis that is substantially co-linear with the second neutral axis of the monoblock stem extension, wherein the third neutral axis is parallel and offset by a distance β from the fourth neutral axis, characterized in that the offset between the first neutral axis and the second neutral axis and the offset between the third neutral axis and the fourth neutral axis are configured to enable independent adjustment of an antero-posterior tibial offset and a medio-lateral tibial offset. - a monoblock stem extension comprising: - a proximal portion having a first neutral axis; and - a distal portion defined by a longitudinal cylindrical shaft having a second neutral axis, wherein the second neutral axis is parallel and offset by a distance α from the first neutral axis; and - a proximal portion having a first neutral axis; and - a distal portion defined by a longitudinal cylindrical shaft having a second neutral axis, wherein the second neutral axis is parallel and offset by a distance α from the first neutral axis; and - an eccentric bushing arranged coaxial around the cylindrical shaft of the monoblock stem extension, the eccentric bushing comprising: - an external cylindrical shaft having a third neutral axis; and - an internal cylinder having a fourth neutral axis that is substantially co-linear with the second neutral axis of the monoblock stem extension, wherein the third neutral axis is parallel and offset by a distance β from the fourth neutral axis, - an external cylindrical shaft having a third neutral axis; and - an internal cylinder having a fourth neutral axis that is substantially co-linear with the second neutral axis of the monoblock stem extension, wherein the third neutral axis is parallel and offset by a distance β from the fourth neutral axis,
Implant for adjusting the position of at least one tissue holder for soft tissue, whereby this implant can be fixed to bone tissue at a distance from said tissue holder and has a guide for an elongate pulling member, whereby this pulling member is connected to said tissue holder, and whereby the implant includes a fixing element which can be moved between a fixing position in which the pulling member is clamped by the fixing element and a free position in which said pulling member can freely move through said guide, characterised in that said fixing element cooperates with a control element which makes it possible to move this fixing element between said fixing position and said free position when the implant is attached to said bone tissue and when the implant is covered with soft tissue such as muscle tissue or skin tissue, wherein at least said fixing element is made of a memory metal or a bimetal, whereby said control element is formed of a cold or heat source which makes it possible to bring the fixing element at a temperature which is different from the body temperature, such that this fixing element is transformed and is moved from said fixing position into said free position.
A calibration method comprising performing a one-point calibration by using a single calibration standard in a measurement of a hemoglobin A1c amount by use of a separation analysis so as to obtain calibration data to be used for correction of a measured value, wherein in a separation pattern of the calibration standard obtained by the separation analysis, a separation index defined by an absorbance bottom height (a) between a stable hemoglobin A1c fraction and a fraction separated before or after the stable hemoglobin A1c fraction and an absorbance height (b) of the stable hemoglobin A1c fraction is not less than 0 and not more than 0.2: Separation index = {absorbance bottom height (a) between stable hemoglobin A1c fraction and a fraction separated before/after thereof} / {absorbance peak height (b) of stable hemoglobin A1c fraction}.
A thermoformed multilayer structure comprising at least one barrier layer, said barrier layer comprising a. less than or equal to 12 percent, by weight of the barrier layer, of an anhydride and/or carboxylic acid functionalized ethylene/alpha-olefin interpolymer having a density in the range of from 0.855 to 0.900 g/cm 3; and having a melt viscosity less than 50 Pa.s (50,000 cP) at 177 °C (350 °F); and b. at least 60 percent, by weight of the barrier layer, of EVOH having from 10 to 30 mole percent units derived from ethylene monomer, wherein the barrier layer has a thickness of from 75 to 150 μm (microns). a. less than or equal to 12 percent, by weight of the barrier layer, of an anhydride and/or carboxylic acid functionalized ethylene/alpha-olefin interpolymer having a density in the range of from 0.855 to 0.900 g/cm 3; and having a melt viscosity less than 50 Pa.s (50,000 cP) at 177 °C (350 °F); and b. at least 60 percent, by weight of the barrier layer, of EVOH having from 10 to 30 mole percent units derived from ethylene monomer, wherein the barrier layer has a thickness of from 75 to 150 μm (microns).
A front module for vehicles, including a mounting bracket which has several struts (3, 4, 5) for receiving several components, wherein one component is designed as a headlight which is supported by a holding arm fastened to a strut and which is adjoined by a side part of the vehicle on a side facing away from the longitudinal axis of the vehicle, wherein the holding arm is supported on the strut by means of fastening means so as to be slidable, transversely to the longitudinal axis of the vehicle, between a pre-assembled position and an adjustment position, such that, in the pre-assembled position of the holding arm, the front module is positioned on the vehicle by sliding it in the direction of the longitudinal axis of the vehicle, and that the holding arm, in the adjustment position thereof, can be locked in at least one adjustment direction which extends at right angles to the longitudinal axis of the vehicle in order to move the holding arm to the final assembly position, characterized in that, for sliding the holding arm relative to the strut from the pre-assembled position to the final assembly position, the fastening means have a tab including a keyhole-shaped recess, wherein the recess comprises a first narrow end and a second wide end and wherein a fastening bolt engages the recess.
A method for controlling a linear compressor including a piston, and a motor assembly for driving the piston, wherein the motor assembly includes: an outer stator having a coil to which current is applied, an inner stator disposed inside the outer stator, and a permanent magnet disposed movably inside the outer stator and the inner stator, wherein the permanent magnet is connected to the piston; wherein the linear compressor further includes a bearing flow path configured to supply bearing refrigerant to the piston; the method comprising: measuring an ambient temperature; when the measured ambient temperature is equal to or lower than a preset safety temperature, applying a safety current to the motor assembly for driving the piston; and when the measured ambient temperature is higher than the safety temperature, applying a drive current lower than the safety current to the motor assembly; wherein when the safety current is applied to the coil, the bearing refrigerant is expanded by the heat generated in the coil. an outer stator having a coil to which current is applied, an inner stator disposed inside the outer stator, and a permanent magnet disposed movably inside the outer stator and the inner stator, wherein the permanent magnet is connected to the piston; wherein the linear compressor further includes a bearing flow path configured to supply bearing refrigerant to the piston; measuring an ambient temperature; when the measured ambient temperature is equal to or lower than a preset safety temperature, applying a safety current to the motor assembly for driving the piston; and when the measured ambient temperature is higher than the safety temperature, applying a drive current lower than the safety current to the motor assembly; wherein when the safety current is applied to the coil, the bearing refrigerant is expanded by the heat generated in the coil.
A tool, comprising: a first body portion having means configured to contact opposite sides (224, 226) of a first component; a second body portion configured to rotate relative to the first body portion, wherein the second body portion is configured to contact a reference surface (224, 250, 252) relative to the first component; and an angle meter configured to measure an angle of the first component based on an angular position of the second body portion relative to the first body portion; characterized in that the first body portion has opposite first and second recesses (114, 116) facing toward one another about a space, wherein the opposite first and second recesses (114, 116) are configured to contact the opposite sides (224, 226) of the first component disposed in the space; the first body portion comprises first and second arm portions (106, 108) configured to move relative to one another to adjust a distance between the first and second recesses (114, 116); and the first and second arm portions (106, 108) are spring-biased toward one another to drive the first and second recesses (114, 116) toward one another about the space. a first body portion having means configured to contact opposite sides (224, 226) of a first component; a second body portion configured to rotate relative to the first body portion, wherein the second body portion is configured to contact a reference surface (224, 250, 252) relative to the first component; and an angle meter configured to measure an angle of the first component based on an angular position of the second body portion relative to the first body portion; characterized in that the first body portion has opposite first and second recesses (114, 116) facing toward one another about a space, wherein the opposite first and second recesses (114, 116) are configured to contact the opposite sides (224, 226) of the first component disposed in the space; the first body portion comprises first and second arm portions (106, 108) configured to move relative to one another to adjust a distance between the first and second recesses (114, 116); and the first and second arm portions (106, 108) are spring-biased toward one another to drive the first and second recesses (114, 116) toward one another about the space.
A detection network comprising a plurality of detection devices configured to detect hazardous behaviour of at least one person in a respective field of detection, each detection device being configured to associate an identifier with the person present in its field of detection and comprising: - a depth sensor configured to generate a plurality of topographic views of the detection field, each topographic view comprising topographic distances between the depth sensor and points present in the detection field, - a determination module configured to determine a silhouette of the person from at least one topographical view, the silhouette being defined by a portion of the topographical distances, known as silhouette distances, - a processing module comprising an artificial neural network and being configured to determine the hazardous behaviour of the person by propagating at least one time sequence of silhouette distances via the artificial neural network, the artificial neural network being trained by a time sequence of silhouette distances corresponding to reference behaviours of the person, the detection network further comprising a centralised server configured to receive from each detection device an anonymised identifier of the person and the time sequence of silhouette distances of that person, the centralised server being further configured to determine the reference behaviours by propagating each time sequence via a centralised artificial neural network. - a depth sensor configured to generate a plurality of topographic views of the detection field, each topographic view comprising topographic distances between the depth sensor and points present in the detection field, - a determination module configured to determine a silhouette of the person from at least one topographical view, the silhouette being defined by a portion of the topographical distances, known as silhouette distances, - a processing module comprising an artificial neural network and being configured to determine the hazardous behaviour of the person by propagating at least one time sequence of silhouette distances via the artificial neural network, the artificial neural network being trained by a time sequence of silhouette distances corresponding to reference behaviours of the person, the detection network further comprising a centralised server configured to receive from each detection device an anonymised identifier of the person and the time sequence of silhouette distances of that person, the centralised server being further configured to determine the reference behaviours by propagating each time sequence via a centralised artificial neural network.
An illuminating member, comprising: a diffusion plate; an optical plate over the diffusion plate; and an adhesion layer and an air gap between the diffusion plate and the optical plate, wherein the optical plate includes a number of micro lens pattern, the illuminating member being characterized in that a sag of the micro lens pattern is within the range of 0.1~0.25, the sag being a ratio of the height of the micro lens pattern to the diameter of the micro lens pattern. a diffusion plate; an optical plate over the diffusion plate; and an adhesion layer and an air gap between the diffusion plate and the optical plate,
An article, comprising: a fluorosurfactant having the formula: A-X-B or A-X 1 -B-X 2 -A, wherein: each instance of A is independently F-[CF(CF 3)CF 2 O] x -CF(CF 3)CONH-, wherein x is greater than or equal to 8; each instance of X, X 1, and X 2 is independently a covalent bond, a morpholino group, a phosphate group, or a carbonyl group; and each instance of B is independently -(C n H 2n O) y - or -(C n H 2n O) y -CH 3, wherein n is an integer greater than 0 and y is integer greater than or equal to 10. each instance of A is independently F-[CF(CF 3)CF 2 O] x -CF(CF 3)CONH-, wherein x is greater than or equal to 8; each instance of X, X 1, and X 2 is independently a covalent bond, a morpholino group, a phosphate group, or a carbonyl group; and each instance of B is independently -(C n H 2n O) y - or -(C n H 2n O) y -CH 3,
A peptide comprising the amino acid sequence of SEQ ID No. 56, and a pharmaceutical acceptable salt thereof, wherein said peptide has an overall length of up to 30 amino acids, and wherein said peptide has the ability to bind to a molecule of the human major histocompatibility complex class-I and is capable, when bound to MHC, of being recognized by CD8 T cells.
A method for treating liquefied hydrocarbons comprising acid gases to remove said acid gases while minimizing loss of amine species, said method comprising the step of contacting said liquefied hydrocarbons with an absorbent aqueous solution of a first amine compound, said first amine compound having the structure wherein R1 and R2 may each individually be hydrogen, methyl, ethyl, n-propyl, i-propyl, n-butyl, s-butyl, 2-hydroxyethyl, propane-2,3-diol, and mixtures thereof.
A pharmaceutical composition comprising a peptide selected from the group consisting of: (a) a peptide consisting of the amino acid sequence of SEQ ID NO: 57; (b) a fusion of a first peptide or protein and a second peptide or protein, wherein the first peptide or protein consists of the amino acid sequence of SEQ ID NO:57 and the second peptide or protein is an epitope tag or a half-life extender; and (c) a peptide comprising the amino acid sequence of SEQ ID NO:57, said peptide consisting of no more than 22 amino acid residues; for use in reducing myocardial infarct size in a human subject in need of treatment therefor, or for use in treating acute myocardial infarction in a human subject. (a) a peptide consisting of the amino acid sequence of SEQ ID NO: 57; (b) a fusion of a first peptide or protein and a second peptide or protein, wherein the first peptide or protein consists of the amino acid sequence of SEQ ID NO:57 and the second peptide or protein is an epitope tag or a half-life extender; and (c) a peptide comprising the amino acid sequence of SEQ ID NO:57, said peptide consisting of no more than 22 amino acid residues;