mhurhangee/ep-ind-claims huggingface dataset:
Shears for cutting branches having at least two correspondingly formed cutters that are able to move in relation to one another, at least one of which is connected to a handle and at least one of which can be subjected to an actuating force via a pull wire which is flexible at least in portions, wherein the pull wire is operatively connected to the cutter via a wire roller, wherein the pull wire is arranged at least in portions in the region of a hinge device provided between the handle and the cutter connected to the handle, coaxially with a hinge axis of the hinge device, characterized in that, at least two gear stages (21, 22) are provided, a gear device (21, 22) being provided between the wire roller and the cutter, which gear device (21, 22) is designed especially for a power transmission for increasing a cutting force of the cutter, the gear device having a pinion attached to the wire roller and a corresponding rack on at least one cutter. wherein the pull wire is arranged at least in portions in the region of a hinge device provided between the handle and the cutter connected to the handle, coaxially with a hinge axis of the hinge device, characterized in that, at least two gear stages (21, 22) are provided, a gear device (21, 22) being provided between the wire roller and the cutter, which gear device (21, 22) is designed especially for a power transmission for increasing a cutting force of the cutter, the gear device having a pinion attached to the wire roller and a corresponding rack on at least one cutter.
Fistula adapter device for the management of enteroatmospheric fistulas without vacuum assistance, comprising a tube which serves to remove the fistula liquid and is of variable height and/or variable cross-sectional area, a rim which is arranged at one end of the tube and serves as a wound contact surface of variable cross-sectional area or contact area, and/or a gel layer as fistula support surface or adjoining fistula contact surface, and an endpiece which is arranged at the other end of the tube and serves for sealing and/or coupling to other medical devices, wherein the tube and the rim are produced from a flexible material, preferably from standard elastomers or from thermoplastic elastomers, wherein the rim is more flexible than the tube, characterized in that the tube is designed as a telescopic tube or as a bellows.
A modified IgG4 Fc fragment comprising a modified hinge region, wherein the hinge region of sequence Glu-Ser-Lys-Tyr-Gly-Pro-Pro-Cys-Pro-Ser-Cys-Pro was modified by deleting part of its amino acid sequence to include only one cysteine residue, so that the hinge consists of Pro-Ser-Cys-Pro.
A two-way wireless device, usable as a slave node for a wireless network, comprising a) a programmable processor comprising a clock adapted to generate first data packets and to process second data packets; b) a radio-frequency transmitter for sending said first data packets generated by said programmable processor; c) a radio-frequency receiver for receiving said second data packets addressed to said programmable processor, d) an antenna connected to said transmitter and an antenna connected to said receiver; e) at least one non-automatically operating actuator, for regulating an electric load according to a control signal from said programmable processor; f) at least one first sensor (6, 9) adapted to send a signal representative of its state to said programmable processor; g) a container comprising a first side and a second side; characterized in that h) said programmable processor comprising a register which comprises a first field identifying said device, a second field identifying said at least one actuator and a third field identifying said at least one sensor (6, 9); and in that i) said first sensor (6, 9) comprises a tactile sensor; and in that j) said first sensor (6, 9) is placed on a side of said container. a) a programmable processor comprising a clock adapted to generate first data packets and to process second data packets; b) a radio-frequency transmitter for sending said first data packets generated by said programmable processor; c) a radio-frequency receiver for receiving said second data packets addressed to said programmable processor, d) an antenna connected to said transmitter and an antenna connected to said receiver; e) at least one non-automatically operating actuator, for regulating an electric load according to a control signal from said programmable processor; f) at least one first sensor (6, 9) adapted to send a signal representative of its state to said programmable processor; g) a container comprising a first side and a second side; characterized in that h) said programmable processor comprising a register which comprises a first field identifying said device, a second field identifying said at least one actuator and a third field identifying said at least one sensor (6, 9); and in that i) said first sensor (6, 9) comprises a tactile sensor; and in that j) said first sensor (6, 9) is placed on a side of said container.
An assembly tool for assembly of a first component of a prosthesis to a second component of the prosthesis for use in joint arthroplasty, the tool comprising: a first member which can engage the first component, and a second member which can engage the second component, characterised in that the second member includes (i) a cap having a threaded recess, and (ii) a threaded rod which is adapted to engage the threaded recess so as to move the second member relative to the first member, and in that the threaded rod is made of a harder metal than the threaded recess. a first member which can engage the first component, and a second member which can engage the second component, characterised in that the second member includes (i) a cap having a threaded recess, and (ii) a threaded rod which is adapted to engage the threaded recess so as to move the second member relative to the first member, and in that the threaded rod is made of a harder metal than the threaded recess.
A method for manufacturing a closed structure part without flange having a curvature and welded edges along a longitudinal direction of the part and further having a varying cross-sectional shape, from two metal plates, the method comprising: a first step of press forming each of the two metal plates, each of said plates being provided with a curvature along a longitudinal direction of the plate corresponding to the curvature of the part to be formed along the longitudinal direction and further provided with both ends in a width direction of the plate corresponding to the welded edges of the part, such that a folding line is formed at a position corresponding to a non-welded bent edge in a cross section of the part; a second step of forming a closed structure by stacking the two press formed metal plates on each other vertically such that their bulging sides face outwardly; and mutually welding their left ends and right ends in the width direction along the longitudinal direction so as to form welded edges; and a third step of forming said closed structure into the part having a target shape by guiding and conveying the closed structure with a pair of left and right rotary rolls and if necessary a lower rotary roll thereunder while changing a distance between the left and right rotary rolls and if necessary moving the lower rotary roll up and down such that the closed structure takes a three-dimensional shape by using the folding lines and the welded edges as origins. a first step of press forming each of the two metal plates, each of said plates being provided with a curvature along a longitudinal direction of the plate corresponding to the curvature of the part to be formed along the longitudinal direction and further provided with both ends in a width direction of the plate corresponding to the welded edges of the part, such that a folding line is formed at a position corresponding to a non-welded bent edge in a cross section of the part; a second step of forming a closed structure by stacking the two press formed metal plates on each other vertically such that their bulging sides face outwardly; and mutually welding their left ends and right ends in the width direction along the longitudinal direction so as to form welded edges; and a third step of forming said closed structure into the part having a target shape by guiding and conveying the closed structure with a pair of left and right rotary rolls and if necessary a lower rotary roll thereunder while changing a distance between the left and right rotary rolls and if necessary moving the lower rotary roll up and down such that the closed structure takes a three-dimensional shape by using the folding lines and the welded edges as origins.
Motor vehicle comprising a bodyshell structure which delimits at least one passenger compartment and one front compartment that are separated by an upper transverse cross member, said vehicle having a steering column with a steering wheel attached to a top extremity of the said column that is coupled in the engine compartment to a steering system and that extends into the passenger compartment by passing under the cross member, said steering column being adjustable in inclination between extreme minimum and maximum angular positions (α m), and being collapsible longitudinally by a safety device in the event of an impact driving the steering wheel towards an element in the driver's compartment which includes a dashboard, the vehicle including means for angularly positioning the column that can move the column from the maximum inclined position of same to a given, less inclined angular position for which the collapse is effected along the entire collapse path without encountering any obstruction to the driver's compartment en route, which can be activated no later than the time of longitudinal collapse of the column to facilitate said collapse, the angular positioning means being synchronized with activation of the safety device and including at least one guided element that is rigidly connected to a tube of the steering column and that can cooperate with guide means, characterized in that the guide means rigidly connected to the bodyshell structure of the vehicle are carried on the cross member with a high degree of rigidity to prevent collapse of the column from causing said guide means to be moved.
Method for coating a piece of chocolate, comprising: - a placement step, wherein at least one edible metal foil having a thickness less than 20 micrometers is arranged on at least one part of the outer surface of a surface layer of said piece of chocolate, said layer comprising cocoa butter, - a heating step after the placement step, in which the piece of chocolate is exposed to a temperature equal to or greater than the melting temperature of the cocoa butter, such that the cocoa butter of said layer melts and attaches said foil to the layer, and - a solidification step after the heating step, wherein the piece of chocolate is exposed to a temperature less than the melting temperature of the cocoa butter and said butter solidifies, the foil being adhered to the surface layer of said piece of chocolate, characterized in that during the heating step air is blown onto the foil which is arranged on the surface layer, the air comprising a temperature equal to or greater than the melting temperature of the cocoa butter. - a placement step, wherein at least one edible metal foil having a thickness less than 20 micrometers is arranged on at least one part of the outer surface of a surface layer of said piece of chocolate, said layer comprising cocoa butter, - a heating step after the placement step, in which the piece of chocolate is exposed to a temperature equal to or greater than the melting temperature of the cocoa butter, such that the cocoa butter of said layer melts and attaches said foil to the layer, and - a solidification step after the heating step, wherein the piece of chocolate is exposed to a temperature less than the melting temperature of the cocoa butter and said butter solidifies, the foil being adhered to the surface layer of said piece of chocolate, characterized in that during the heating step air is blown onto the foil which is arranged on the surface layer, the air comprising a temperature equal to or greater than the melting temperature of the cocoa butter.
Activated carbon adsorber unit for purifying gases and/or liquids in industrial applications, comprising - an activated carbon adsorber, which has an activated carbon filter unit and a housing accommodating the activated carbon filter unit, and - a rack for placement of the activated carbon adsorber, characterized in that the rack is formed as a frame-like transport rack for transport by means of a vehicle for the transport of goods, the transport rack completely enclosing the activated carbon adsorber, the transport rack and the housing of the activated carbon adsorber being created from an ISO tank container. - an activated carbon adsorber, which has an activated carbon filter unit and a housing accommodating the activated carbon filter unit, and - a rack for placement of the activated carbon adsorber,
Process for preparing polyaryl ether ketones, which consists of the following steps: - placing one or more aromatic acid chlorides and one or more aromatic ethers in contact with a Lewis acid in a solvent which dissolves water only to a content of less than 0.05% at 25°C at a temperature of between -5 and +25°C, with stirring; - completion of the polymerization at a temperature of between 50 and 120°C; - separation of part of the solvent; - placing the reaction mixture in contact with water with stirring in the optional presence of acid; - separation of the polyaryl ether ketones and of the liquid effluents; - washing of the polyaryl ether ketones with water in the presence or absence of acid and separation of the aqueous liquors; - azeotropic distillation on the polymer containing residual solvent and separation of the aqueous liquors; - washing and neutralization of the acidity of the effluents and of the PAEK particles and separation of the aqueous liquors; and - drying of the polyaryl ether ketones at a temperature above Tg +20°C. - placing one or more aromatic acid chlorides and one or more aromatic ethers in contact with a Lewis acid in a solvent which dissolves water only to a content of less than 0.05% at 25°C at a temperature of between -5 and +25°C, with stirring; - completion of the polymerization at a temperature of between 50 and 120°C; - separation of part of the solvent; - placing the reaction mixture in contact with water with stirring in the optional presence of acid; - separation of the polyaryl ether ketones and of the liquid effluents; - washing of the polyaryl ether ketones with water in the presence or absence of acid and separation of the aqueous liquors; - azeotropic distillation on the polymer containing residual solvent and separation of the aqueous liquors; - washing and neutralization of the acidity of the effluents and of the PAEK particles and separation of the aqueous liquors; and - drying of the polyaryl ether ketones at a temperature above Tg +20°C.
A method in a first network node for controlling load in a first cell of the first network node, wherein the first network node is comprised in a radio communication network, wherein the first network node comprises a multi-stage receiver for cancelling interference in multiple stages, wherein a first and a second radio communication device (131, 132) are associated with the first cell, wherein a third radio communication device is associated with a second cell of the radio communication network, wherein the method comprises: computing an interference cancellation gain, at an intermediate stage of the multi-stage receiver, during an interference cancellation process for reducing interference between uplinks signals transmitted by the first and second radio communication devices (131, 132); estimating neighbour cell interference from interfering signals transmitted by the third radio communication device while accounting for a load utilization, wherein the load utilization relates to power transmitted by the first and second radio communication devices (131, 132) and power granted to the first and second radio communication devices (131, 132); calculating a load measure for stability based on at least the interference cancellation gain and the neighbour cell interference; and controlling the load in the first cell based on the load measure for stability. computing an interference cancellation gain, at an intermediate stage of the multi-stage receiver, during an interference cancellation process for reducing interference between uplinks signals transmitted by the first and second radio communication devices (131, 132); estimating neighbour cell interference from interfering signals transmitted by the third radio communication device while accounting for a load utilization, wherein the load utilization relates to power transmitted by the first and second radio communication devices (131, 132) and power granted to the first and second radio communication devices (131, 132); calculating a load measure for stability based on at least the interference cancellation gain and the neighbour cell interference; and controlling the load in the first cell based on the load measure for stability.
A boiler with an oil burner, with a combustion chamber that is fired by the oil burner and the wall surfaces of which are in predetermined regions acted upon with combustion gas generated in the combustion chamber by the oil burner on the one hand and with the respective heating medium on the other hand, and with an exhaust gas line for discharging the combustion gas from the combustion chamber, wherein at least a section of said exhaust gas line is realized in the form of a plate heat exchanger that is arranged within a protective housing of the boiler and features exchanger surfaces that are acted upon by the heating medium on the one hand and by combustion gas discharged from the combustion chamber on the other hand, and wherein the material for the plate heat exchanger consists of stainless steel, characterized in that the plate heat exchanger is realized in the form of a plate heat exchanger that works on the countercurrent principle, and in that exchanger surfaces, which face one another within the plate heat exchanger, feature raised, protruding guide elements on at least one of their sides acted upon by the heating medium, wherein each guide element consists of a bead-like embossment that is produced in a press-forming operation and on the one hand forms a helical or meander-shaped forced path for the heating medium and on the other hand an intersecting shape of the heating medium channels.
A mobile computing device, comprising: a processor and a memory communicatively connected to the processor, the processor configured to: receive, at the mobile computing device via a wireless interface of the mobile computing device from a remote network server via a network connection between the mobile computing device and the remote network server, a request to configure the mobile computing device to operate in a selected peripheral connection device class of a plurality of peripheral connection device classes; configure the mobile computing device to operate in the selected peripheral connection device class; receive, at the mobile computing device from the remote network server via the network connection, information associated with a service to be provided for a host computer by the mobile computing device based on the selected peripheral connection device class and communicate with the host computer, via a peripheral connection interface of the mobile computing device configured to support a peripheral connection between the mobile computing device and the host computer, based on the service to be provided for the host computer by the mobile computing device based on the selected peripheral connection device class. receive, at the mobile computing device via a wireless interface of the mobile computing device from a remote network server via a network connection between the mobile computing device and the remote network server, a request to configure the mobile computing device to operate in a selected peripheral connection device class of a plurality of peripheral connection device classes; configure the mobile computing device to operate in the selected peripheral connection device class; receive, at the mobile computing device from the remote network server via the network connection, information associated with a service to be provided for a host computer by the mobile computing device based on the selected peripheral connection device class and communicate with the host computer, via a peripheral connection interface of the mobile computing device configured to support a peripheral connection between the mobile computing device and the host computer, based on the service to be provided for the host computer by the mobile computing device based on the selected peripheral connection device class.
A method for safely executing a native code module on a computing device, where the native code module comprises untrusted program code expressed using an instruction set architecture associated with the computing device, comprising: receiving the native code module; loading the native code module into a secure runtime environment of the computing device, including; enforcing data integrity for the native code module by using techniques that manage and/or limit the memory segments that the native code module can access, thereby ensuring that the untrusted program code in the native code module cannot perform unauthorized data reads or writes; and; enforcing code integrity for the native code module by at least checking the untrusted program code for the presence of restricted instructions from the instruction set architecture associated with the computing device; and enforcing control flow integrity by at least checking that jump instructions only use relative addressing; and then executing a set of instructions from the native code module in the secure runtime environment; wherein the secure runtime environment moderates at least one of: which system resources of the computing device can be accessed by the native code module on the computing device; and how the system resources can be accessed by the native code module on the computing device. receiving the native code module; loading the native code module into a secure runtime environment of the computing device, including; enforcing data integrity for the native code module by using techniques that manage and/or limit the memory segments that the native code module can access, thereby ensuring that the untrusted program code in the native code module cannot perform unauthorized data reads or writes; and; enforcing code integrity for the native code module by at least checking the untrusted program code for the presence of restricted instructions from the instruction set architecture associated with the computing device; and enforcing control flow integrity by at least checking that jump instructions only use relative addressing; and then executing a set of instructions from the native code module in the secure runtime environment; wherein the secure runtime environment moderates at least one of: which system resources of the computing device can be accessed by the native code module on the computing device; and how the system resources can be accessed by the native code module on the computing device. which system resources of the computing device can be accessed by the native code module on the computing device; and how the system resources can be accessed by the native code module on the computing device.