mhurhangee/ep-ind-claims huggingface dataset:
A fuel injection system for a reciprocating engine, comprising: - injectors for injecting pressurized fuel into the cylinders of the engine, - a high pressure pump for pressurizing fuel to be injected, - a supply pipe for feeding fuel from the high pressure pump toward the injectors, and - feed pipes for feeding fuel from the supply pipe to the injectors, wherein first ends of the feed pipes are connected to the injectors, - second ends of the feed pipes are connected to the supply pipe, and - each fuel injector is provided with a pressure accumulator, which is an integral part of the injector, characterised in that the supply pipe is a double wall pipe, which comprises an inner flow space for feeding fuel toward the injectors and an outer flow space for possibly leaking fuel, and that the feed pipes are connected to the supply pipe by means of connectors, which are provided with leak detectors for detecting fuel leaks from the supply pipe. - injectors for injecting pressurized fuel into the cylinders of the engine, - a high pressure pump for pressurizing fuel to be injected, - a supply pipe for feeding fuel from the high pressure pump toward the injectors, and - feed pipes for feeding fuel from the supply pipe to the injectors, wherein first ends of the feed pipes are connected to the injectors, - second ends of the feed pipes are connected to the supply pipe, and - each fuel injector is provided with a pressure accumulator, which is an integral part of the injector,
Apparatus for dental radiography comprising: - an imaging system comprising at least one X-ray detector (6, 18) having an X-ray sensitive area (29,30), the imaging system further comprising an X-ray source having a focal spot (5, FS), which emits an X-ray beam having an optical axis which intersects with the X-ray sensitive area (29, 30) of the X-ray detector (6, 18), - a support holding the imaging system and arranged for performing a trajectory of the imaging system for scanning a patient, wherein the trajectory of the imaging system comprises a pivotation of the X-ray source around a mechanical rotation axis and a translation of the mechanical rotation axis, wherein the combined pivotation and translation results in an effective pivotation of the X-ray source around a virtual projection center of the X-ray beam, wherein the virtual projection center is located along the optical axis behind the focal spot (5, FS) of the X-ray source as seen from the X-ray detector (6, 18), characterised in that the distance between the virtual projection center and the focal spot (5, FS) is greater than the distance between the focal spot (5, FS) and the detector (6, 18). - an imaging system comprising at least one X-ray detector (6, 18) having an X-ray sensitive area (29,30), the imaging system further comprising an X-ray source having a focal spot (5, FS), which emits an X-ray beam having an optical axis which intersects with the X-ray sensitive area (29, 30) of the X-ray detector (6, 18), - a support holding the imaging system and arranged for performing a trajectory of the imaging system for scanning a patient, wherein the trajectory of the imaging system comprises a pivotation of the X-ray source around a mechanical rotation axis and a translation of the mechanical rotation axis, wherein the combined pivotation and translation results in an effective pivotation of the X-ray source around a virtual projection center of the X-ray beam, wherein the virtual projection center is located along the optical axis behind the focal spot (5, FS) of the X-ray source as seen from the X-ray detector (6, 18), characterised in that
A lithium-sulfur battery comprising: an anode including an anode current collector and a lithium metal layer provided on the anode current collector; a cathode including a sulfur-containing material; an electrolyte provided between the anode and the cathode; and an insulator film provided so as to cover a boundary line at which the anode current collector and the lithium metal layer adjoin, wherein the insulator film covers 90% or less of the entire surface area of the lithium metal layer, and wherein the insulator film has insulation resistance of 10 6 Ω·m (deionized water) or more. an anode including an anode current collector and a lithium metal layer provided on the anode current collector; a cathode including a sulfur-containing material; an electrolyte provided between the anode and the cathode; and an insulator film provided so as to cover a boundary line at which the anode current collector and the lithium metal layer adjoin, wherein the insulator film covers 90% or less of the entire surface area of the lithium metal layer, and wherein the insulator film has insulation resistance of 10 6 Ω·m (deionized water) or more.
A compound of Formula having the structure: wherein: A is R 1 is substituted or unsubstituted C 2 -C 6 alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted heterocycloalkyl, or substituted or unsubstituted heteroaryl; or a pharmaceutically acceptable salt, or solvate thereof; wherein the substituents of the substituted C 2 -C 6 alkyl, heteroalkyl, heterocycloalkyl, or heteroaryl are individually and independently selected from amide, ester, alkyl, cycloalkyl, heteroalkyl, aryl, heteroaryl, heteroalicyclic, hydroxy, alkoxy, aryloxy, alkylthio, arylthio, alkylsulfoxide, arylsulfoxide, ester, alkylsulfone, arylsulfone, cyano, halogen, alkoyl, alkoyloxo, isocyanato, thiocyanato, isothiocyanato, nitro, haloalkyl, haloalkoxy, fluoroalkyl, amino, alkyl-amino, dialkyl-amino, and amido. A is R 1 is substituted or unsubstituted C 2 -C 6 alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted heterocycloalkyl, or substituted or unsubstituted heteroaryl; or a pharmaceutically acceptable salt, or solvate thereof; wherein the substituents of the substituted C 2 -C 6 alkyl, heteroalkyl, heterocycloalkyl, or heteroaryl are individually and independently selected from amide, ester, alkyl, cycloalkyl, heteroalkyl, aryl, heteroaryl, heteroalicyclic, hydroxy, alkoxy, aryloxy, alkylthio, arylthio, alkylsulfoxide, arylsulfoxide, ester, alkylsulfone, arylsulfone, cyano, halogen, alkoyl, alkoyloxo, isocyanato, thiocyanato, isothiocyanato, nitro, haloalkyl, haloalkoxy, fluoroalkyl, amino, alkyl-amino, dialkyl-amino, and amido.
A fluid-tight foot support system, comprising: a foot support bladder for supporting at least a portion of a wearer's foot; a pump; a first fluid transfer line extending between the foot support bladder and the pump; a first valve in the first fluid transfer line, wherein the first valve allows fluid to move from the foot support bladder to the pump but inhibits fluid from moving from the pump into the foot support bladder via the first fluid transfer line; a fluid reservoir; a second fluid transfer line extending between the pump and the fluid reservoir; a second valve in the second fluid transfer line, wherein the second valve allows fluid to move from the pump to the fluid reservoir but inhibits fluid from moving from the fluid reservoir into the pump via the second fluid transfer line; a third fluid transfer line extending between the fluid reservoir and the foot support bladder; a first fluid flow controller to control flow of fluid between the fluid reservoir and the foot support bladder via the third fluid transfer line; a fourth fluid transfer line extending between the fluid reservoir and the foot support bladder; and a first check valve in the fourth fluid transfer line. a foot support bladder for supporting at least a portion of a wearer's foot; a pump; a first fluid transfer line extending between the foot support bladder and the pump; a first valve in the first fluid transfer line, wherein the first valve allows fluid to move from the foot support bladder to the pump but inhibits fluid from moving from the pump into the foot support bladder via the first fluid transfer line; a fluid reservoir; a second fluid transfer line extending between the pump and the fluid reservoir; a second valve in the second fluid transfer line, wherein the second valve allows fluid to move from the pump to the fluid reservoir but inhibits fluid from moving from the fluid reservoir into the pump via the second fluid transfer line; a third fluid transfer line extending between the fluid reservoir and the foot support bladder; a first fluid flow controller to control flow of fluid between the fluid reservoir and the foot support bladder via the third fluid transfer line; a fourth fluid transfer line extending between the fluid reservoir and the foot support bladder; and a first check valve in the fourth fluid transfer line.
An electric hybrid transmission architecture (1,100) for a work vehicle, said transmission architecture (1,100) comprising: ● a first electric motor configured to provide a torque to a first input shaft by converting electric power received by a source of electric power to which said first electric motor is electrically connected; ● a second electric motor configured to provide a torque to a second input shaft by converting electric power received by the source of electric power to which said second electric motor is electrically connected; ● at least an output shaft (116, 132) being mechanically connected to at least one between said first and second input shafts (110, 131) by means of controllable engaging means; said source of electric power is a generator carried by an internal combustion engine of said work vehicle; said transmission architecture is characterized in that it comprises a third electric motor, configured to provide a torque to a third input shaft by converting electric power received by the source of electric power to which said third electric motor is electrically connected, said third input shaft being mechanically connected to said first input shaft by means of a gearing. ● a first electric motor configured to provide a torque to a first input shaft by converting electric power received by a source of electric power to which said first electric motor is electrically connected; ● a second electric motor configured to provide a torque to a second input shaft by converting electric power received by the source of electric power to which said second electric motor is electrically connected; ● at least an output shaft (116, 132) being mechanically connected to at least one between said first and second input shafts (110, 131) by means of controllable engaging means; said source of electric power is a generator carried by an internal combustion engine of said work vehicle; said transmission architecture is characterized in that it comprises a third electric motor, configured to provide a torque to a third input shaft by converting electric power received by the source of electric power to which said third electric motor is electrically connected, said third input shaft being mechanically connected to said first input shaft by means of a gearing. said source of electric power is a generator carried by an internal combustion engine of said work vehicle; said transmission architecture is characterized in that it comprises a third electric motor, configured to provide a torque to a third input shaft by converting electric power received by the source of electric power to which said third electric motor is electrically connected, said third input shaft being mechanically connected to said first input shaft by means of a gearing.
A folding step construction for a motor vehicle, preferably an omnibus, having entry steps, comprising: - a folding step and - a mounting device by means of which the folding step is able to be mounted on the motor vehicle and about which the folding step is preferably able to be pivoted, wherein the folding step comprises at least two steps (5, 6) connected together via a riser, characterized in that the folding step is designed from a continuous planar element and the planar element forms the first step, the second step and the riser, and/or the folding step comprises at least two steps (5, 6) connected together via a riser, a first step thereof having a first face (5.1) and a second face (5.2), and a second step thereof having a first face (6.1) and a second face (6.2) and in a pivoted-out state of the folding step the first face (5.1) of the first step and the first face (6.1) of the second step are designed as step surfaces and in a pivoted-in state of the folding step the second face (5.2) of the first step and the second face (6.2) of the second step are designed as step surfaces. - a folding step and - a mounting device by means of which the folding step is able to be mounted on the motor vehicle and about which the folding step is preferably able to be pivoted, wherein the folding step comprises at least two steps (5, 6) connected together via a riser, characterized in that
Method for effective identification of neighbouring nodes in a mobile ad hoc network, wherein in a specified time frame (Δ T 1, Δ T 2, ΔT 3) each node sends out a message signalling its presence which is acknowledged by at least one node receiving the message signalling the presence for the first time by sending out an acknowledgement message, characterised in that the time frame (Δ T 2, Δ T 3) in which the message signalling the presence is sent out is varied by a node which is located outside the mobile ad hoc network, wherein immediately after the start of operation of the node located outside the ad hoc network the time frame (Δ T 2) is set to a value which is successively reduced until a previously specified minimum-value time frame (Δ T 3) is reached.
An ink level sensor comprising: a sense capacitor whose capacitance (Csense) changes with a level of ink in a chamber; a first switch configured to apply a voltage (Vp) to the sense capacitor, placing a charge on the sense capacitor; a second switch configured to share the charge between the sense capacitor and a reference capacitor, resulting in a reference voltage (Vg); and an evaluation transistor configured to provide a drain to source resistance in proportion to the reference voltage (Vg). a sense capacitor whose capacitance (Csense) changes with a level of ink in a chamber; a first switch configured to apply a voltage (Vp) to the sense capacitor, placing a charge on the sense capacitor; a second switch configured to share the charge between the sense capacitor and a reference capacitor, resulting in a reference voltage (Vg); and an evaluation transistor configured to provide a drain to source resistance in proportion to the reference voltage (Vg).
A toolholder for use in a metalworking operation, wherein the toolholder is adapted to hold an on-edge cutting insert with a depth and having first and second opposing segments (35, 45) about a central plane and with a central axis therethrough, wherein each segment (35, 45) has at least three sides (37a-d, 47a-d) and associated corners (39a-d, 49a-d) defining end cutting edges (40a-d, 50a-d) and, wherein each segment (35, 45) is radially offset relative to the other, wherein the toolholder comprises: a body extending along a longitudinal axis and having a first end; a pocket extending into the first end, wherein the pocket has at least two sides (82, 84) and the general shape and depth of the cutting insert intended to be held therein and, wherein the at least two sides (82, 84) intersect to define a pocket corner; a primary deep relief area located within the pocket corner and associated with a segment corner of the first segment and, wherein the primary deep relief area extends substantially to the depth of the cutting insert intended to be held within the pocket; and support pads (78, 80) extending from each of the at least two sides (82, 84) of the pocket engage the appropriate mounting surfaces (75a, 75b) of the cutting insert defining a third segment between the first and second segments (35, 45), characterized in that a primary shallow relief area located within the same pocket corner and associated with a segment corner of the second segment and, wherein the primary shallow relief area is adapted to accommodate only the segment corner of the second segment and, wherein the primary shallow relief area extends only to the depth of the second segment. a body extending along a longitudinal axis and having a first end; a pocket extending into the first end, wherein the pocket has at least two sides (82, 84) and the general shape and depth of the cutting insert intended to be held therein and, wherein the at least two sides (82, 84) intersect to define a pocket corner; a primary deep relief area located within the pocket corner and associated with a segment corner of the first segment and, wherein the primary deep relief area extends substantially to the depth of the cutting insert intended to be held within the pocket; and support pads (78, 80) extending from each of the at least two sides (82, 84) of the pocket engage the appropriate mounting surfaces (75a, 75b) of the cutting insert defining a third segment between the first and second segments (35, 45), characterized in that a primary shallow relief area located within the same pocket corner and associated with a segment corner of the second segment and, wherein the primary shallow relief area is adapted to accommodate only the segment corner of the second segment and, wherein the primary shallow relief area extends only to the depth of the second segment.
A composition for use in predicting prognosis or chemotherapy responsiveness of stage II and III gastric cancer, the composition comprising: an agent for measuring an mRNA expression level in a prognosis or chemotherapy responsiveness-related marker gene group including WARS, GZMB, CDX1 and SFRP4; and an agent for measuring an mRNA expression level in a reference gene group including ACTB, ATP5E, GPX1, UBB and HPRT1, wherein the agent for measuring an mRNA expression level of the prognosis or chemotherapy responsiveness-related marker gene group or the reference gene group is a set of primers set forth in SEQ ID NOs: 1 to 18; or probes set forth in SEQ ID NOs: 19 to 27, wherein the mRNA expression level of a prognosis-related marker gene group consisting of WARS, GZMB and SFRP4 is used to predict prognosis of stage II and III gastric cancer, and the mRNA expression level of a chemotherapy responsiveness-related marker gene group consisting of WARS, GZMB and CDX1 is used to predict chemotherapy responsiveness of stage II and III gastric cancer. an agent for measuring an mRNA expression level in a prognosis or chemotherapy responsiveness-related marker gene group including WARS, GZMB, CDX1 and SFRP4; and an agent for measuring an mRNA expression level in a reference gene group including ACTB, ATP5E, GPX1, UBB and HPRT1, wherein the agent for measuring an mRNA expression level of the prognosis or chemotherapy responsiveness-related marker gene group or the reference gene group is a set of primers set forth in SEQ ID NOs: 1 to 18; or probes set forth in SEQ ID NOs: 19 to 27, wherein the mRNA expression level of a prognosis-related marker gene group consisting of WARS, GZMB and SFRP4 is used to predict prognosis of stage II and III gastric cancer, and the mRNA expression level of a chemotherapy responsiveness-related marker gene group consisting of WARS, GZMB and CDX1 is used to predict chemotherapy responsiveness of stage II and III gastric cancer.
An all- trans retinoic acid injectable formulation, comprising all- trans retinoic acid and a solubilizer, wherein the solubilizer is a lipid consisting of hydrogenated soybean phosphatidylcholine (HSPC), cholesterol and pegylated phospholipid.
Cosmetic antiperspirant composition free of aluminum salt, comprising at least one active antiperspirant ingredient selected from the group consisting of hydroxycarboxylic acid, hydroxycarboxylic salt, and mixtures thereof, characterized in that the at least one active antiperspirant ingredient has a fraction of 2.5 wt% to 40 wt%, based on the total weight of the composition, and the composition has an ethanol fraction of 10 wt% to 50 wt%, based on the total weight of the composition, wherein the at least one active antiperspirant ingredient is selected from the group consisting of tartaric acid, tartaric salt, and mixtures thereof.
Method for detecting wheel imbalances in a vehicle, in which a driving state variable over a speed range of the vehicle is determined by sensor, characterized in that a frequency analysis of the profile of the driving state variable is carried out, and a wheel imbalance is inferred from an increase in resonance.
A screw feeder comprising a base plate and a screw forwarding device rigidly mounted to the base plate, the screw forwarding device comprising a vibration mechanism comprising at least one spring and a vibration motor connected to the at least one spring, a rail for receiving screws, a fastening mechanism for connecting the vibration mechanism to the base plate, the rail being connected to a first end of the at least one spring and a second end of the at least one spring being connected to the base plate via the fastening mechanism, the at least one spring being arranged at an oblique angle to the rail, the vibration mechanism defining a movement path of the rail, when the vibration mechanism is in use, said movement path being arranged in and defining a plane of movement, characterized in that the base plate is oriented substantially parallel to the plane of movement defined by the vibration mechanism, wherein the plane of movement and the base plate are oriented substantially vertical and wherein the vibration mechanism has a first mass and the base plate has a second mass and wherein the relation between the first mass and the second mass is from 1:6 to 1:15, preferably from 1:7 to 1:12 and more preferably from 1:8 to 1:10
A method of delivering a first substance to a first site in a plant, comprising: transporting, on a travel path alongside the plant, (i) a laser light emitter configured to generate a light energy and (ii) a substance applicator configured to emit the first substance; applying the light energy to a second site located on a plant surface to create a first disruption wherein the first site and the second site are different in kind; applying a first dosage of the first substance to the second site in an amount effective to promote uptake of the first substance to the first site via the first disruption; and wherein the laser light emitter and the substance applicator are continuously moving along the travel path as the light energy and the first substance are applied to the second site of the plant and wherein the first dosage and first disruption are sufficient to achieve a biological response. transporting, on a travel path alongside the plant, (i) a laser light emitter configured to generate a light energy and (ii) a substance applicator configured to emit the first substance; applying the light energy to a second site located on a plant surface to create a first disruption wherein the first site and the second site are different in kind; applying a first dosage of the first substance to the second site in an amount effective to promote uptake of the first substance to the first site via the first disruption; and wherein the laser light emitter and the substance applicator are continuously moving along the travel path as the light energy and the first substance are applied to the second site of the plant and wherein the first dosage and first disruption are sufficient to achieve a biological response.