mhurhangee/ep-ind-claims huggingface dataset:
A method for dispersing nanoparticles on other support particles or on a substrate consisting of stirring of said nanoparticles along with the support particles or substrate in a dry medium, in a Turbula type shaker low speed stirring mixer, wherein: - nanoparticles have a size between 1-50 nm and are inorganic materials selected from metal oxides, hydroxides, carbonates, sulphates, phosphates, silicates, borates, aluminates, - support particles are selected from inorganic metal oxides, - substrate is selected from a ceramic, glass or metal type material and wherein the nanoparticles are added for dispersion at a rate less than 5% by weight respect to the support particles. - nanoparticles have a size between 1-50 nm and are inorganic materials selected from metal oxides, hydroxides, carbonates, sulphates, phosphates, silicates, borates, aluminates, - support particles are selected from inorganic metal oxides, - substrate is selected from a ceramic, glass or metal type material and
An external trial stimulator powered by one or more replaceable batteries, comprising: a housing, comprising: a first portion, wherein the first portion comprises a battery compartment; a second portion; and a center portion, disposed between the first portion and the second portion, forming a central cavity; wherein the first, second, and center portions comprise separate components assembled together; a first circuit board, disposed in the cavity of the center portion, comprising neurostimulation logic programmable to generate neurostimulation pulses for electrodes implanted in a user of the external trial stimulator; and at least one port in the center portion, wherein each at least one port is electrically connected to the first circuit board and adapted for connection to a lead for the electrodes. a housing, comprising: a first portion, wherein the first portion comprises a battery compartment; a second portion; and a center portion, disposed between the first portion and the second portion, forming a central cavity; wherein the first, second, and center portions comprise separate components assembled together; a first portion, wherein the first portion comprises a battery compartment; a second portion; and a center portion, disposed between the first portion and the second portion, forming a central cavity; wherein the first, second, and center portions comprise separate components assembled together; a first circuit board, disposed in the cavity of the center portion, comprising neurostimulation logic programmable to generate neurostimulation pulses for electrodes implanted in a user of the external trial stimulator; and at least one port in the center portion, wherein each at least one port is electrically connected to the first circuit board and adapted for connection to a lead for the electrodes.
A coupler (101, 401, 611, 621) for an electrical connector (111, 121, 311, 601), comprising: a body having a first end (103, 403) and a second end (105, 405) opposite the first end; a first connection interface (107, 407, 613, 623) positioned at the first end of the body, the first connection interface (107, 407, 613, 623) having a first set of conductive rings (116, 118, 416, 418, 615, 625); and a second connection interface (109, 409) positioned at the second end (105, 405) of the body, the second connection interface (109, 409) having a second set of conductive rings (118, 418) electrically connected to the first set of conductive rings (116, 416), wherein the rings of the first set of conductive rings and of the second set of conductive rings are configured to interface with linear contact members of a connection interface (113, 123, 313, 607, 609) of connectors (111, 121, 311, 601), the coupler being characterized in that the first connection interface (107, 407, 613, 623) and the second connection interface (109, 409) are formed in at least one of a stepped conic shape or an inverted stepped conic shape. a body having a first end (103, 403) and a second end (105, 405) opposite the first end; a first connection interface (107, 407, 613, 623) positioned at the first end of the body, the first connection interface (107, 407, 613, 623) having a first set of conductive rings (116, 118, 416, 418, 615, 625); and a second connection interface (109, 409) positioned at the second end (105, 405) of the body, the second connection interface (109, 409) having a second set of conductive rings (118, 418) electrically connected to the first set of conductive rings (116, 416), wherein the rings of the first set of conductive rings and of the second set of conductive rings are configured to interface with linear contact members of a connection interface (113, 123, 313, 607, 609) of connectors (111, 121, 311, 601), the coupler being characterized in that the first connection interface (107, 407, 613, 623) and the second connection interface (109, 409) are formed in at least one of a stepped conic shape or an inverted stepped conic shape.
A piece of furniture or a building including a wall (64, 68, 101) suitable for receiving an appliance on its outer face (66, 86), and an inductor for inductively powering the appliance, the inductor being secured to the wall (64, 68, 101) and extending substantially parallel to the outer face (66, 86) of the wall, the inductor comprising conductors (46 to 48) forming a spiral and coated or embedded in an electrically insulating material, the piece of furniture or the building being characterized in that the conductors (46 to 48) are of substantially rectangular section and in that the wall comprises a mixture of plastics material and of mineral particles.
Semiconductor assembly, comprising - a carrier element with a first carrier element conductor path, - a semiconductor, - an electrically insulating element, having a first insulating element conductor path, - a first spacer element and - at least one further spacer element, wherein - the semiconductor is connected electrically and mechanically on a first semiconductor side by means of a first connecting material to the first carrier element conductor path, - the semiconductor is connected electrically and mechanically on a second semiconductor side, which faces away from the first semiconductor side of the semiconductor, by means of a second connecting material to the first insulating element conductor path, which is arranged on a first insulating element side of the electrically insulating element, - the first spacer element is arranged for maintaining a distance between the carrier element and an assembly element which faces towards the second semiconductor side of the semiconductor, and is connected mechanically to the carrier element and the assembly element respectively, - the further spacer element is also arranged for maintaining the distance between the carrier element and the assembly element which faces towards the second semiconductor side of the semiconductor, and is connected mechanically to the carrier element and the assembly element respectively, - the first spacer element and the further spacer element are embodied as a common spacer element, characterised in that - the common spacer element comprises at least two segments and forms a closed or at least almost closed frame. - a carrier element with a first carrier element conductor path, - a semiconductor, - an electrically insulating element, having a first insulating element conductor path, - a first spacer element and - at least one further spacer element, - the semiconductor is connected electrically and mechanically on a first semiconductor side by means of a first connecting material to the first carrier element conductor path, - the semiconductor is connected electrically and mechanically on a second semiconductor side, which faces away from the first semiconductor side of the semiconductor, by means of a second connecting material to the first insulating element conductor path, which is arranged on a first insulating element side of the electrically insulating element, - the first spacer element is arranged for maintaining a distance between the carrier element and an assembly element which faces towards the second semiconductor side of the semiconductor, and is connected mechanically to the carrier element and the assembly element respectively, - the further spacer element is also arranged for maintaining the distance between the carrier element and the assembly element which faces towards the second semiconductor side of the semiconductor, and is connected mechanically to the carrier element and the assembly element respectively, - the first spacer element and the further spacer element are embodied as a common spacer element, characterised in that - the common spacer element comprises at least two segments and forms a closed or at least almost closed frame.
A five-membered heterocyclic amide compound having the following general structural formula, or a pharmaceutically acceptable salt thereof: wherein X, Y and Z are each independently selected from one of a group consisting of CR 4, NR 5, S atom and O atom, and the S atom and O atom are not present simultaneously; n is selected from 1 or 2; R 1 and R 2 is selected from one of a group consisting of hydrogen, halogen, C 1-6 alkyl, C 1-6 alkoxy, halogenated C 1-6 alkyl, halogenated C 1-6 alkoxy, amido, and C 1-6 alkylamido; R 3 is selected from one of a group consisting of R 4 and R 5 are each independently selected from one of a group consisting of hydrogen, C 1-6 alkyl, halogenated C 1-6 alkyl, C 1-6 alkoxy, and halogenated C 1-6 alkoxy, or R 5 is absent; and R 6 is selected from one of a group consisting of hydrogen, halogen, C 1-6 alkyl, halogenated C 1-6 alkyl, C 1-6 alkoxy, halogenated C 1-6 alkoxy, and amido group. wherein X, Y and Z are each independently selected from one of a group consisting of CR 4, NR 5, S atom and O atom, and the S atom and O atom are not present simultaneously; n is selected from 1 or 2; R 1 and R 2 is selected from one of a group consisting of hydrogen, halogen, C 1-6 alkyl, C 1-6 alkoxy, halogenated C 1-6 alkyl, halogenated C 1-6 alkoxy, amido, and C 1-6 alkylamido; R 3 is selected from one of a group consisting of R 4 and R 5 are each independently selected from one of a group consisting of hydrogen, C 1-6 alkyl, halogenated C 1-6 alkyl, C 1-6 alkoxy, and halogenated C 1-6 alkoxy, or R 5 is absent; and R 6 is selected from one of a group consisting of hydrogen, halogen, C 1-6 alkyl, halogenated C 1-6 alkyl, C 1-6 alkoxy, halogenated C 1-6 alkoxy, and amido group.
A device for measuring a thickness of a contact wire of an overhead catenary extending above a railway, the contact wire being intended to be in contact with a pantograph of a rail vehicle circulating on the railway, the device comprising: - a frame intended to be carried by a pole, the frame having means for suspending the frame over the contact wire, the suspension means forming a passage for engaging the contact wire and defining an axis of displacement of the contact wire in the engagement passage; - means for measuring the thickness of the contact wire inside the engagement passage, characterized in that the means for measuring the thickness comprise: - a light source configured to transversely illuminate the contact wire in the engagement passage and create a projected shadow; - an optical sensor configured to capture the projected shadow of the contact wire; - means for determining a thickness of the contact wire from the projected shadow of the contact wire measured by the optical sensor. - a frame intended to be carried by a pole, the frame having means for suspending the frame over the contact wire, the suspension means forming a passage for engaging the contact wire and defining an axis of displacement of the contact wire in the engagement passage; - means for measuring the thickness of the contact wire inside the engagement passage, - a light source configured to transversely illuminate the contact wire in the engagement passage and create a projected shadow; - an optical sensor configured to capture the projected shadow of the contact wire; - means for determining a thickness of the contact wire from the projected shadow of the contact wire measured by the optical sensor.
A safety device for installation in a gas-supply system, where a main pressure regulator regulates at inlet pressure of a gas fed thereto to an outlet pressure, said safety device comprising a valve body in which are accommodated an over-pressure valve (4; 104) of a quick-action shut-off device, a control valve (3; 103) of a pressure-limiting device, and a safety valve (2; 102) serving therefor as a common shut-off valve, whereby the safety valve (2; 102) is fluidically connected to the over-pressure valve (4; 104) and the control valve (3; 103), wherein the safety valve (2; 102) closes either when the over-pressure valve (4; 104) opens due to the inlet pressure being at an inlet pressure level that is above the inlet-pressure limit value, or when the control valve (3; 103) opens due to the outlet pressure being at an outlet pressure level that is above an outlet-pressure limit value.
Use of a washer together with an earth working tine, the washer engaging with the rear of the earth working tine having a channel recess, the washer being manufactured from a single part and comprising a substantially flat plate having two opposing faces (2a, 2b) and with an opening for engagement of a bolt therethrough, wherein the plate comprises two protrusions (3a, 3b), the protrusions (3a, 3b) being positioned on a line which dissects the centre of the opening and positioned on opposite sides of the opening, the protrusions (3a, 3b) being upstanding from the same face of the plate, wherein, in use, the protrusions (3a, 3b) engage with the channel recess of a tine to which the washer is in contact with.
An agricultural implement comprising a drawbar having a towing hitch or multipoint linkage at a front end thereof and a carriage having tool carrying frames (6, 7) pivotally mounted at their proximal ends to the carriage, the frames (6, 7) in an in use working configuration extending to opposite sides of the carriage, substantially orthogonal to the drawbar, the frames (6, 7) being arranged to be folded inwards to a transport configuration where their proximal ends are located forward of their distal ends which extend towards the rear of the implement, wherein the carriage is arranged to move forwards and backwards along the drawbar so that, in the transport configuration, the carriage can be positioned towards the front of the drawbar with the frames (6, 7) folded along the sides of the drawbar and in the working configuration the carriage and frames (6, 7) can be positioned towards the rear of the drawbar, characterised in that the implement is arranged such that the frames (6, 7) can be extended outward from the transport configuration to their working configuration prior to the drawbar being pulled through the carriage to place the implement into the working configuration.
A method of wireless communication performed by a target user equipment, UE, comprising: receiving a channel state information, CSI, reference signal, RS, from a source UE via a sidelink communication; determining that a lower-layer source identifier of the source UE is included in a set of upper-layer source identifiers; and transmitting a sidelink CSI report in a media access control, MAC, control element, CE, as a response to the CSI RS, based at least in part on the determination that the lower-layer source identifier of the source UE is included in a set of upper-layer source identifiers, wherein the transmission of the sidelink CSI report is prioritized above a sidelink transport channel. receiving a channel state information, CSI, reference signal, RS, from a source UE via a sidelink communication; determining that a lower-layer source identifier of the source UE is included in a set of upper-layer source identifiers; and transmitting a sidelink CSI report in a media access control, MAC, control element, CE, as a response to the CSI RS, based at least in part on the determination that the lower-layer source identifier of the source UE is included in a set of upper-layer source identifiers, wherein the transmission of the sidelink CSI report is prioritized above a sidelink transport channel.
A system comprising an implantable medical device for sensing cardiac electrical events, the system comprising: a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the implantable medical device; sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; a therapy delivery circuit configured to deliver an electrical stimulation therapy to a patient's heart via the electrodes coupled to the implantable medical device; and characterised by a control circuit configured to: determine a gain based on a minimum threshold value; determine a maximum limit of a starting threshold value based on the gain and the minimum threshold value of the cardiac event sensing threshold; control the sensing circuit to set a starting value of the cardiac event sensing threshold to be equal to or less than the maximum limit; detect an arrhythmia based on a plurality of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver the electrical stimulation therapy in response to detecting the arrhythmia. a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the implantable medical device; sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; receive a cardiac electrical signal from electrodes coupled to the implantable medical device; sense a cardiac event attendant to a myocardial depolarization in response to the cardiac electrical signal crossing a cardiac event sensing threshold; a therapy delivery circuit configured to deliver an electrical stimulation therapy to a patient's heart via the electrodes coupled to the implantable medical device; and characterised by a control circuit configured to: determine a gain based on a minimum threshold value; determine a maximum limit of a starting threshold value based on the gain and the minimum threshold value of the cardiac event sensing threshold; control the sensing circuit to set a starting value of the cardiac event sensing threshold to be equal to or less than the maximum limit; detect an arrhythmia based on a plurality of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver the electrical stimulation therapy in response to detecting the arrhythmia. determine a gain based on a minimum threshold value; determine a maximum limit of a starting threshold value based on the gain and the minimum threshold value of the cardiac event sensing threshold; control the sensing circuit to set a starting value of the cardiac event sensing threshold to be equal to or less than the maximum limit; detect an arrhythmia based on a plurality of cardiac events sensed by the sensing circuit; and control the therapy delivery circuit to deliver the electrical stimulation therapy in response to detecting the arrhythmia.
Method for producing a shoe, in particular a sports shoe, comprising the steps: a) Measuring at least one individual characteristic of the foot of a person and/or one walking characteristic of the person by means of a measuring device; b) Determining the progression of a material characteristic and/or mechanical characteristic of at least one sole or one sole part of the shoe along at least one direction of extend of the sole or of the sole part in accordance with the values measured according to step a) using a specified algorithm or a specified rule; c) Producing the sole or a sole part of the shoe, wherein the material characteristics and/or mechanical characteristics are varied along the at least one direction of extend of the sole or of the sole part such that the material characteristic and/or mechanical characteristics at least approximately correspond to the progression determined according to step b); d) Connecting the sole produced according to step c) or the sole part to an upper in order to complete the shoe, characterized in that the production according to step c) takes place by injecting of plastic material into the cavity of an injection moulding tool, wherein at least one additive is added in sections in different quantities to a base material (A, B) of the sole or of the sole part at the production of the sole or the sole part. a) Measuring at least one individual characteristic of the foot of a person and/or one walking characteristic of the person by means of a measuring device; b) Determining the progression of a material characteristic and/or mechanical characteristic of at least one sole or one sole part of the shoe along at least one direction of extend of the sole or of the sole part in accordance with the values measured according to step a) using a specified algorithm or a specified rule; c) Producing the sole or a sole part of the shoe, wherein the material characteristics and/or mechanical characteristics are varied along the at least one direction of extend of the sole or of the sole part such that the material characteristic and/or mechanical characteristics at least approximately correspond to the progression determined according to step b); d) Connecting the sole produced according to step c) or the sole part to an upper in order to complete the shoe,