mhurhangee/patent-ind-claim-en huggingface dataset:
Cable-cutting unit for a cable winch, wherein the cable-cutting unit has the following features: at least one cable-cutting device for severing a cable running through the cable-cutting unit ; a slide ; and a housing having a cable duct for guiding the cable running through the cable-cutting unit , wherein the cable-cutting device is disposed or disposable on the slide and the slide is disposed or disposable on the housing so as to be displaceable transversely to the cable duct between a first position and a second position, wherein in the first position of the slide the cable-cutting device in relation to a longitudinal extent of the cable duct is disposed so as to be opposite the cable duct , and in the second position of the slide the cable-cutting device in relation to the longitudinal extent of the cable duct is disposed so as to be laterally offset in relation to the cable duct . at least one cable-cutting device for severing a cable running through the cable-cutting unit ; a slide ; and a housing having a cable duct for guiding the cable running through the cable-cutting unit , wherein the cable-cutting device is disposed or disposable on the slide and the slide is disposed or disposable on the housing so as to be displaceable transversely to the cable duct between a first position and a second position, wherein in the first position of the slide the cable-cutting device in relation to a longitudinal extent of the cable duct is disposed so as to be opposite the cable duct , and in the second position of the slide the cable-cutting device in relation to the longitudinal extent of the cable duct is disposed so as to be laterally offset in relation to the cable duct .
Method for installation of a garage door , with a door leaf movable between an open setting and a closed setting, comprising at least one weight compensating unit having a tension spring , wherein the door leaf comprises a plurality of pivotably connected panels (3a - d) guided between two profile members , characterised by the following method steps: - mounting of a biased tension spring on one of the profile members , wherein one end of the tension spring is so secured in one of a plurality of mounts , which are arranged in succession in longitudinal direction of the profile member , of a mounting unit fixedly connected with the profile member that the biasing force of the tension spring is less than the weight force of the garage door , - mounting a first panel at the profile members , wherein the first panel is supported above the closed setting by spacers , - coupling the first panel to the tension spring by way of tension means, - wherein the tension means is fixed to a locking element at the mounting unit in a locking setting, - mounting the further panels (3b - d) on the profile members , - wherein at the time of mounting the last panel with removed spacers the door leaf is moved by the weight force thereof exceeding the biasing force into the closed setting and thereby the tension means is automatically released from the locking setting, - manual displacing of the door leaf into the open setting and - securing the end of the tension spring in a further mount of the mounting unit so that an increased biasing force of the tension spring at least approximately corresponds with the weight of the door leaf is obtained. - mounting of a biased tension spring on one of the profile members , wherein one end of the tension spring is so secured in one of a plurality of mounts , which are arranged in succession in longitudinal direction of the profile member , of a mounting unit fixedly connected with the profile member that the biasing force of the tension spring is less than the weight force of the garage door , - mounting a first panel at the profile members , wherein the first panel is supported above the closed setting by spacers , - coupling the first panel to the tension spring by way of tension means, - wherein the tension means is fixed to a locking element at the mounting unit in a locking setting, - mounting the further panels (3b - d) on the profile members , - wherein at the time of mounting the last panel with removed spacers the door leaf is moved by the weight force thereof exceeding the biasing force into the closed setting and thereby the tension means is automatically released from the locking setting, - manual displacing of the door leaf into the open setting and - securing the end of the tension spring in a further mount of the mounting unit so that an increased biasing force of the tension spring at least approximately corresponds with the weight of the door leaf is obtained.
A device for measurement of an analyte concentration, the device comprising: a sensor configured to generate a signal associated with a concentration of an analyte; and a sensing membrane located over the sensor, the sensing membrane comprising a diffusion-resistance layer comprising a base polymer having a lowest glass transition temperature as measured using ASTM D3418 of greater than -50 °C, wherein the base polymer is a segmented block copolymer which comprises polyurethane and/or polyurea segments and one or more polycarbonate or polyester segments. a sensor configured to generate a signal associated with a concentration of an analyte; and a sensing membrane located over the sensor, the sensing membrane comprising a diffusion-resistance layer comprising a base polymer having a lowest glass transition temperature as measured using ASTM D3418 of greater than -50 °C, wherein the base polymer is a segmented block copolymer which comprises polyurethane and/or polyurea segments and one or more polycarbonate or polyester segments.
A liquid phase process for the homo and copolymerization of butene-1 carried out in the presence of a catalyst comprising (a) a solid catalyst component comprising Mg, Ti and an electron donor compound of the following formula (I) in which the R groups, equal to or different from each other, are C 1 -C 10 hydrocarbon groups; (b) an aluminium alkyl cocatalyst and (c) an external electron donor. (a) a solid catalyst component comprising Mg, Ti and an electron donor compound of the following formula (I) in which the R groups, equal to or different from each other, are C 1 -C 10 hydrocarbon groups; (b) an aluminium alkyl cocatalyst and (c) an external electron donor.
An aerosol generating device comprising: an accommodation portion configured to accommodate an aerosol generating article ; a heater configured to heat the aerosol generating article inserted in the accommodation portion ; a temperature sensor configured to measure a temperature of the heater ; and a controller configured to acquire temperature data of the heater based on the temperature of the heater measured by the temperature sensor , and generate a reuse detection signal based on a change in the temperature data which is caused by insertion of the aerosol generating article into the accommodation portion . an accommodation portion configured to accommodate an aerosol generating article ; a heater configured to heat the aerosol generating article inserted in the accommodation portion ; a temperature sensor configured to measure a temperature of the heater ; and a controller configured to acquire temperature data of the heater based on the temperature of the heater measured by the temperature sensor , and generate a reuse detection signal based on a change in the temperature data which is caused by insertion of the aerosol generating article into the accommodation portion .
Method for the computer-aided inspection and cryptographic confirmation of at least one system state of a first system using a confirmation device , having the method steps of: - recording (S1) first integrity information of the first system that comprises an integrity value, at least one measured value and at least one item of measurement information, wherein - the at least one measured value and the at least one item of measurement information are recorded (S1a) in at least one measurement of the at least one system state, - the integrity value is calculated (S1b) depending on the at least one measured value, - the integrity value is cryptographically confirmed (Sic) by a first trust module of the first system , - transmitting (S2) the first integrity information to the confirmation device , - inspecting (S3) the first integrity information in the confirmation device against a first inspection rule, - outputting (S4) second integrity information, wherein the second integrity information comprises at least part of the first integrity information and a summary and/or generalization of the first integrity information, and - cryptographically confirming (S5) the second integrity information using a second trust module in the confirmation device . - recording (S1) first integrity information of the first system that comprises an integrity value, at least one measured value and at least one item of measurement information, wherein - the at least one measured value and the at least one item of measurement information are recorded (S1a) in at least one measurement of the at least one system state, - the integrity value is calculated (S1b) depending on the at least one measured value, - the integrity value is cryptographically confirmed (Sic) by a first trust module of the first system , - transmitting (S2) the first integrity information to the confirmation device , - inspecting (S3) the first integrity information in the confirmation device against a first inspection rule, - outputting (S4) second integrity information, wherein the second integrity information comprises at least part of the first integrity information and a summary and/or generalization of the first integrity information, and - cryptographically confirming (S5) the second integrity information using a second trust module in the confirmation device .
A vehicle comprising: an internal combustion engine ; a transmission having a transmission case connected to the internal combustion engine ; an electric component , and a support structure configured to support the electric component with respect to the transmission ; characterized in that the support structure comprises: a first bracket connected to the electric component , and a second bracket connected to the transmission case and disposed between the first bracket and the transmission case , the first bracket being connected to the second bracket and supporting the electric component directly above the transmission case with a predetermined distance maintained between the bottom of the electric component and the transmission case . an internal combustion engine ; a transmission having a transmission case connected to the internal combustion engine ; an electric component , and a support structure configured to support the electric component with respect to the transmission ; characterized in that the support structure comprises: a first bracket connected to the electric component , and a second bracket connected to the transmission case and disposed between the first bracket and the transmission case , the first bracket being connected to the second bracket and supporting the electric component directly above the transmission case with a predetermined distance maintained between the bottom of the electric component and the transmission case . a first bracket connected to the electric component , and a second bracket connected to the transmission case and disposed between the first bracket and the transmission case , the first bracket being connected to the second bracket and supporting the electric component directly above the transmission case with a predetermined distance maintained between the bottom of the electric component and the transmission case .
A pre-doping formation method for a lithium ion capacitor having a positive electrode comprising porous carbon and lithium-intercalated metal oxide, a negative electrode comprising non-graphitizable carbon, and a porous current collector, the positive electrode, the negative electrode, and the current collector forming a cell, characterized in that : a third metal lithium electrode and the cell are arranged in a face-to-face manner and separated by a separator, and the method comprises the following steps: Step 1, lithium-intercalating the negative electrode by taking the lithium-intercalated oxide in the positive electrode as a lithium source, and providing a current between the negative electrode and the positive electrode; Step 2, supplementing, by the third metal lithium electrode, lithium ions to the metal oxide in a lithium-deintercalated state of the positive electrode, by providing a current between the third metal-lithium electrode and the positive electrode; and Step 3, at the end of charging cutting off the third metal lithium electrode from the cell, and sealing edges of the cell to obtain the formed lithium capacitor. Step 1, lithium-intercalating the negative electrode by taking the lithium-intercalated oxide in the positive electrode as a lithium source, and providing a current between the negative electrode and the positive electrode; Step 2, supplementing, by the third metal lithium electrode, lithium ions to the metal oxide in a lithium-deintercalated state of the positive electrode, by providing a current between the third metal-lithium electrode and the positive electrode; and Step 3, at the end of charging cutting off the third metal lithium electrode from the cell, and sealing edges of the cell to obtain the formed lithium capacitor.
Tire casing having a toroidal shape and an axis of rotation, and comprising: • a top block and two side blocks, the top block having two axial ends , a side block joining an axial end to a bead via a sidewall ; • a carcass frame anchored in each of the beads by turning over around an annular bead wire , the carcass frame separating the tire casing into an interior zone arranged on the side of the fluid cavity of the tire casing and an exterior zone arranged on the side of the exterior of the tire casing ; • a bead layer forming the exterior surface of the tire casing of the bead , said bead elastomer compound layer being intended to come into contact with the rim, • a sidewall layer located radially on the outside in contact with the bead elastomer compound layer and forming the exterior surface of said sidewall , • an inner sealed layer located innermost to the tire casing at least one of the side blocks of the tire casing comprising a radiofrequency transceiver device (D) comprising: - a chip comprising a transceiver circuit and at least two connection pads electrically connected to the transceiver circuit ; - a dipole antenna consisting of two antenna wires each electrically connected to the two connection pads of the chip , the dipole antenna comprising a textile yarn and at least one ribbon formed of an electrically conductive material, the ribbon being wound in turns around the textile yarn to cover it at least partially. • a top block and two side blocks, the top block having two axial ends , a side block joining an axial end to a bead via a sidewall ; • a carcass frame anchored in each of the beads by turning over around an annular bead wire , the carcass frame separating the tire casing into an interior zone arranged on the side of the fluid cavity of the tire casing and an exterior zone arranged on the side of the exterior of the tire casing ; • a bead layer forming the exterior surface of the tire casing of the bead , said bead elastomer compound layer being intended to come into contact with the rim, • a sidewall layer located radially on the outside in contact with the bead elastomer compound layer and forming the exterior surface of said sidewall , • an inner sealed layer located innermost to the tire casing - a chip comprising a transceiver circuit and at least two connection pads electrically connected to the transceiver circuit ; - a dipole antenna consisting of two antenna wires each electrically connected to the two connection pads of the chip , the dipole antenna comprising a textile yarn and at least one ribbon formed of an electrically conductive material, the ribbon being wound in turns around the textile yarn to cover it at least partially.
Safety system (100; 500) to detect a risk condition in a region to be monitored placed close to a drilling machine ; said system comprising sensor means (101, 102, 103, 105a, 105b, 106; 501, 502), to be mounted on a support structure of said drilling machine and for detecting data representing the presence of a foreign object located in said region to be monitored placed close to a drilling tool of said drilling machine , said sensor means comprising at least one distance detector assembly (101, 102; 501, 502), for detecting data representing the distance of said object and of setting elements placed in said region relative to said at least one distance detector assembly (101, 102; 501, 502), said setting elements being fixed objects or obstacles within said region ; and control means (104; 503), which are configured to: - process said data provided by said sensor means (101, 102, 103, 105a, 105b, 106; 501, 502), and - provide a control signal, should said data correspond to said risk condition concerning the presence of said object in said region to be monitored; said safety system being characterized in that said at least one distance detector assembly (101, 102; 501, 502) comprises a pair of different distance sensors ; and in that said control means (104; 503) are configured to: - calculate an estimation of the volume occupied by said object and by said setting elements belonging to said region to be monitored as a function of said data, - compare said calculated estimation and a preliminarily stored three-dimensional model concerning the volume occupied by the setting elements without the presence of said object , and - assess whether between the calculated estimation and said three-dimensional model there is a variation corresponding to said risk condition according to predetermined criteria. - process said data provided by said sensor means (101, 102, 103, 105a, 105b, 106; 501, 502), and - provide a control signal, should said data correspond to said risk condition concerning the presence of said object in said region to be monitored; - calculate an estimation of the volume occupied by said object and by said setting elements belonging to said region to be monitored as a function of said data, - compare said calculated estimation and a preliminarily stored three-dimensional model concerning the volume occupied by the setting elements without the presence of said object , and - assess whether between the calculated estimation and said three-dimensional model there is a variation corresponding to said risk condition according to predetermined criteria.
A computer-implemented method for decoding at least M 0 symbols X 1 0 , ... , X M 0 0 received from a transmitter through a wireless communication medium, said received symbols representing symbols encoded by an encoder E of the transmitter, said method comprising: inputting in a decoder the M 0 symbols X 1 0 , ... , X M 0 0 , said decoder comprising an artificial neural network system with N layers, wherein the decoder is defined as a function F which is defined by N sets of functions F 1 i , ... , F M i i , with i from 1 to N, wherein each Function F m i corresponds to a neuron of the i-th layer of said artificial neural network system, wherein F m i X 1 i − 1 , ... , X M i − 1 i − 1 = f m i ∑ k = 1 M i − 1 w k , m i − 1 × X k i − 1 +β m i , with F X 1 0 , ... , X M 0 0 = F 1 N X 1 N − 1 , ... , X M N − 1 N − 1 , ... , F M N N X 1 N − 1 , ... , X M N − 1 N − 1 , where, X m i − 1 are respectively the outputs of the functions F m i − 1 , X m i − 1 = F m i − 1 X 1 i − 2 , ... , X M i − 1 i − 2 of the (i-1)-th set, wherein each f m i is either an artificial neural network activation function or an identity function, and w 1 , m i − 1 , ... , w M i − 1 , m i − 1 , β m i for m from 1 to M i and for i from 1 to N are real number parameters of said artificial neural network, wherein at least one of the functions f m i with m from 1 to M i and i from 1 to N-1 is a multiple level activation function; wherein a multiple level activation function is an activation function that enables to consider strictly more than two levels of output. inputting in a decoder the M 0 symbols X 1 0 , ... , X M 0 0 , said decoder comprising an artificial neural network system with N layers, wherein the decoder is defined as a function F which is defined by N sets of functions F 1 i , ... , F M i i , with i from 1 to N, wherein each Function F m i corresponds to a neuron of the i-th layer of said artificial neural network system, wherein F m i X 1 i − 1 , ... , X M i − 1 i − 1 = f m i ∑ k = 1 M i − 1 w k , m i − 1 × X k i − 1 +β m i , with F X 1 0 , ... , X M 0 0 = F 1 N X 1 N − 1 , ... , X M N − 1 N − 1 , ... , F M N N X 1 N − 1 , ... , X M N − 1 N − 1 , where, X m i − 1 are respectively the outputs of the functions F m i − 1 , X m i − 1 = F m i − 1 X 1 i − 2 , ... , X M i − 1 i − 2 of the (i-1)-th set, wherein each f m i is either an artificial neural network activation function or an identity function, and w 1 , m i − 1 , ... , w M i − 1 , m i − 1 , β m i for m from 1 to M i and for i from 1 to N are real number parameters of said artificial neural network, wherein at least one of the functions f m i with m from 1 to M i and i from 1 to N-1 is a multiple level activation function; wherein a multiple level activation function is an activation function that enables to consider strictly more than two levels of output.