mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: accessing, by a computing device (100; 400; 500; 550), a plurality of test cases (102; 104, 106, 108; 302, 304, 306) that each includes a plurality of test steps; identifying, by the computing device, a first group of modules that each include at least two sequential test steps and that are included in at least two test cases; comparing, by the computing device, each module in the first group of the modules to each other module in the first group of the modules; identifying, by the computing device, a second group of the modules that are included in the first group of the modules and that each include the same first sequential test steps; identifying, by the computing device, a third group of the modules that are included in the first group of the modules and that each include the same first sequential test steps and the same second sequential test steps; generating, by the computing device, a fourth group of the modules by removing the second group of modules from the first group of modules; selecting, by the computing device, a subset of the fourth group of the modules; and updating, by the computing device, the plurality of test cases by modularizing the test steps that correspond to the subset of the fourth group of the modules. accessing, by a computing device (100; 400; 500; 550), a plurality of test cases (102; 104, 106, 108; 302, 304, 306) that each includes a plurality of test steps; identifying, by the computing device, a first group of modules that each include at least two sequential test steps and that are included in at least two test cases; comparing, by the computing device, each module in the first group of the modules to each other module in the first group of the modules; identifying, by the computing device, a second group of the modules that are included in the first group of the modules and that each include the same first sequential test steps; identifying, by the computing device, a third group of the modules that are included in the first group of the modules and that each include the same first sequential test steps and the same second sequential test steps; generating, by the computing device, a fourth group of the modules by removing the second group of modules from the first group of modules; selecting, by the computing device, a subset of the fourth group of the modules; and updating, by the computing device, the plurality of test cases by modularizing the test steps that correspond to the subset of the fourth group of the modules.
A composite component, comprising: a metal component having a substantially cylindrical shape or a substantially annular shape; and a ring-shaped bonded magnet disposed on an outer periphery of the metal component , the ring-shaped bonded magnet comprising a thermoplastic resin , magnetic particles , and rubber particles , characterised in that an average particle size of the rubber particles is more than 0.7 μm and less than 1 mm. a metal component having a substantially cylindrical shape or a substantially annular shape; and a ring-shaped bonded magnet disposed on an outer periphery of the metal component , the ring-shaped bonded magnet comprising a thermoplastic resin , magnetic particles , and rubber particles , characterised in that an average particle size of the rubber particles is more than 0.7 μm and less than 1 mm.
A machinery for scanning a slab of rock material, comprising: - a support to support the slab , - a scanner configured to capture an image of the slab , - a reader device configured to read an identifying element , in particular containing items of information, applied on the slab , - a control unit adapted to produce, as an output, an image of the slab ; wherein the control unit is configured to receive from the reader device an input signal concerning the identifying element and, based on said input signal, to determine the parameters with which the scanner scans the slab and/or the parameters with which the control unit processes the output image of the slab ; characterized in that the scanner is adapted to detect optical references applied on the slab; and the control unit is configured to determine the position of said optical references and, based on this position, to produce, as an output, the spatial positioning of the slab with reference to a reference system. - a support to support the slab , - a scanner configured to capture an image of the slab , - a reader device configured to read an identifying element , in particular containing items of information, applied on the slab , - a control unit adapted to produce, as an output, an image of the slab ; wherein the control unit is configured to receive from the reader device an input signal concerning the identifying element and, based on said input signal, to determine the parameters with which the scanner scans the slab and/or the parameters with which the control unit processes the output image of the slab ;
A device to help combat bruxism, including a structure designed to be worn on the head of a person, said structure including a headband having a plane of symmetry (P) on either side of which it extends, said structure including two arms symmetrical with respect to said plane of symmetry (P), said two arms being connected to said headband by a first arm end, said device being characterised in that the two said arms extend downwards from the headband and each have a second free arm end , said second free arm end of each of the arms being at such a distance from the headband that it is able to be positioned against a masseter muscle when said person is wearing said structure and said second end including a masseter circuit , able to detect contraction of the masseter muscle on which said free arm end is positioned, said free end including a vibration device able to adopt either an operating state wherein it emits vibrations, or a standby state wherein it does not emit vibrations, said device including an analysis and control module , communicating with said masseter circuits , and with said vibration devices , said analysis and control module being able to collect and analyse data relating to said contractions detected, and able to control shifting of the vibration devices from said standby state to said operating state, and vice versa. said structure including two arms symmetrical with respect to said plane of symmetry (P), said two arms being connected to said headband by a first arm end, said device being characterised in that the two said arms extend downwards from the headband and each have a second free arm end , said second free arm end of each of the arms being at such a distance from the headband that it is able to be positioned against a masseter muscle when said person is wearing said structure and said second end including a masseter circuit , able to detect contraction of the masseter muscle on which said free arm end is positioned, said free end including a vibration device able to adopt either an operating state wherein it emits vibrations, or a standby state wherein it does not emit vibrations, said device including an analysis and control module , communicating with said masseter circuits , and with said vibration devices , said analysis and control module being able to collect and analyse data relating to said contractions detected, and able to control shifting of the vibration devices from said standby state to said operating state, and vice versa.
Antenna housing having - a circular mounting platform for accommodating an antenna board on the upper side, wherein the underside of the mounting platform is provided with reinforcement ribs , which run radially towards the centre, - a covering cap for fully covering over the mounting platform , and - a threaded bolt , which is arranged in the centre of the mounting platform and is intended for insertion into an antenna-housing carrier , wherein the connecting device formed between the covering cap and mounting platform is a rotary/latching connection with a first rotary position, which can be released in a nondestructive manner, and a latching position, which cannot be released by further rotation, and - the threaded bolt is formed in a vertically upright state, as a hollow bolt, on the underside of the mounting platform , and - the screw thread has two flattened portions located parallel to one another. - a circular mounting platform for accommodating an antenna board on the upper side, wherein the underside of the mounting platform is provided with reinforcement ribs , which run radially towards the centre, - a covering cap for fully covering over the mounting platform , and - a threaded bolt , which is arranged in the centre of the mounting platform and is intended for insertion into an antenna-housing carrier , wherein the connecting device formed between the covering cap and mounting platform is a rotary/latching connection with a first rotary position, which can be released in a nondestructive manner, and a latching position, which cannot be released by further rotation, and - the threaded bolt is formed in a vertically upright state, as a hollow bolt, on the underside of the mounting platform , and - the screw thread has two flattened portions located parallel to one another.
A connecting device between a vessel closed off by a perforable stopper and a container , such as a syringe body, this device comprising: - a base , which is configured to be mounted on the vessel and which comprises a hollow member for perforating the stopper, this hollow member delimiting at least one opening , and - a needle holder , which is detachably connected relative to the base , which is waiting to be connected with the container, and which includes a hypodermic needle , one end of which emerges in the inner volume (V144) of the hollow member , characterized in that the device further comprises: - a collar attached to the needle holder , and - a sheath , which is connected to the collar and which defines a central axis (X11) along which the sheath is movable relative to the collar and around the latter, against a resilient force exerted by return means . - a base , which is configured to be mounted on the vessel and which comprises a hollow member for perforating the stopper, this hollow member delimiting at least one opening , and - a needle holder , which is detachably connected relative to the base , which is waiting to be connected with the container, and which includes a hypodermic needle , one end of which emerges in the inner volume (V144) of the hollow member , - a collar attached to the needle holder , and - a sheath , which is connected to the collar and which defines a central axis (X11) along which the sheath is movable relative to the collar and around the latter, against a resilient force exerted by return means .
A method for machine production of pretzels, comprising the following features: - providing a pretzel shaping and looping device , which receives strands of dough by means of a feed mechanism, - gripping the central area of the strands of dough with a shaping unit of the device, wherein the central area of the strand of dough is wrapped around a plurality of bolt-type shaping elements of the shaping unit that are adjustable in height; - gripping the ends of the strand of dough by means of at least one gripping unit which is equipped with grippers and stretching the strand of dough by pulling on the ends of the strand of dough, while at the same time securing the central area of the strand of dough by the shaping unit, and - shaping a pretzel knot by means of a mutual rotation of the grippers , characterized in that - the shaping of the pretzel knot is initiated by rotation of the grippers already during the stretching of the strand of dough , wherein in initiation of the shaping of the pretzel knot, the ends of the strand of dough that are already under tension are crossed in such a way that the point of intersection (K) of the ends of the strand of dough is no higher than or is higher in a range between 0.5 and 10 mm than the projection height (H) of the shaping elements above a dough supporting surface. - providing a pretzel shaping and looping device , which receives strands of dough by means of a feed mechanism, - gripping the central area of the strands of dough with a shaping unit of the device, wherein the central area of the strand of dough is wrapped around a plurality of bolt-type shaping elements of the shaping unit that are adjustable in height; - gripping the ends of the strand of dough by means of at least one gripping unit which is equipped with grippers and stretching the strand of dough by pulling on the ends of the strand of dough, while at the same time securing the central area of the strand of dough by the shaping unit, and - shaping a pretzel knot by means of a mutual rotation of the grippers , characterized in that - the shaping of the pretzel knot is initiated by rotation of the grippers already during the stretching of the strand of dough , wherein in initiation of the shaping of the pretzel knot, the ends of the strand of dough that are already under tension are crossed in such a way that the point of intersection (K) of the ends of the strand of dough is no higher than or is higher in a range between 0.5 and 10 mm than the projection height (H) of the shaping elements above a dough supporting surface.
Device for removing ammonia from exhaust air from a livestock stable, comprising an air inlet in a top portion of the device configured to introduce said exhaust air into said device and an aqueous liquid inlet in a top portion of the device configured to introduce aqueous liquid into said device; a first zone (I) downstream of said air inlet and said aqueous liquid inlet , wherein said first zone (I) is configured to enable dissolving of ammonia contained in said air in the aqueous liquid under conditions that allow conversion of ammonia to ammonium in said aqueous liquid; a second zone (II) downstream of said first zone (I), configured to receive aqueous liquid and air from said first zone (I) and containing microorganisms capable to convert ammonium into nitrite under conditions that allow said microorganisms to convert ammonium to nitrite in said aqueous liquid; a third zone (III) downstream of said second zone (II) and configured to receive air and aqueous liquid containing dissolved nitrite from said second zone (II), wherein said third zone (III) is configured to allow conversion of nitrite to nitrate at a pH below 2; an air outlet configured to pass air from said third zone (III) out of said device , and an aqueous liquid outlet configured to pass aqueous liquid from said third zone (III) out of said device , wherein said air outlet and said aqueous liquid outlet are arranged in a bottom portion of said device. comprising an air inlet in a top portion of the device configured to introduce said exhaust air into said device and an aqueous liquid inlet in a top portion of the device configured to introduce aqueous liquid into said device; a first zone (I) downstream of said air inlet and said aqueous liquid inlet , wherein said first zone (I) is configured to enable dissolving of ammonia contained in said air in the aqueous liquid under conditions that allow conversion of ammonia to ammonium in said aqueous liquid; a second zone (II) downstream of said first zone (I), configured to receive aqueous liquid and air from said first zone (I) and containing microorganisms capable to convert ammonium into nitrite under conditions that allow said microorganisms to convert ammonium to nitrite in said aqueous liquid; a third zone (III) downstream of said second zone (II) and configured to receive air and aqueous liquid containing dissolved nitrite from said second zone (II), wherein said third zone (III) is configured to allow conversion of nitrite to nitrate at a pH below 2; an air outlet configured to pass air from said third zone (III) out of said device , and an aqueous liquid outlet configured to pass aqueous liquid from said third zone (III) out of said device , wherein said air outlet and said aqueous liquid outlet are arranged in a bottom portion of said device.
A process for the production of a pultrudate by mixing a) di- or polyisocyanates, b) compounds having at least two groups reactive toward isocyanates, c) catalyst, d) mold-release agent and optionally, e) other auxiliaries and additional substances, to give a pultrusion resin system, and wetting and hardening a fiber material therewith, where the di- and polyisocyanates (a) are mixed with a polyol component (B), comprising compounds having at least two groups (b) reactive toward isocyanates, catalysts (c), mold-release agent (d) and optionally other auxiliaries and additional substances (e), and the pH of polyol component (B) is from 6.5 to 8.5. a) di- or polyisocyanates, b) compounds having at least two groups reactive toward isocyanates, c) catalyst, d) mold-release agent and optionally, e) other auxiliaries and additional substances, to give a pultrusion resin system, and wetting and hardening a fiber material therewith, where the di- and polyisocyanates (a) are mixed with a polyol component (B), comprising compounds having at least two groups (b) reactive toward isocyanates, catalysts (c), mold-release agent (d) and optionally other auxiliaries and additional substances (e), and the pH of polyol component (B) is from 6.5 to 8.5.
Cilastatin or a pharmaceutically acceptable salt thereof for use in inhibiting renal injuries induced by a hemolytic reaction.
Method for checking workpieces , in particular vehicle bodies , the method comprising the following: - ascertaining one or more workpiece parameters of the workpieces to be checked and/or one or more facility parameters of a treatment facility for treating the workpieces to be checked; - processing and/or compiling the one or more workpiece parameters and/or the one or more facility parameters, a workpiece-specific data set being created for each workpiece , characterized in that after one or more treatment steps have been carried out in one or more treatment stations , the workpieces are supplied to one or more post-treatment stations , depending on the content of the corresponding workpiece-specific data record, in that the workpiece-specific data sets of the workpieces are modified and/or supplemented during and/or after the post-treatment, in particular with workpiece parameters which relate to carrying out the post-treatment, and/or with facility parameters which relate to one or more post-treatment stations , and/or with treatment result parameters which are obtained in a treatment-specific and/or workpiece-specific manner due to the post-treatment, and in that after one or more post-treatment steps have been carried out, the workpieces are supplied to one or more further post-treatment stations , depending on the modified and/or supplemented content of the corresponding workpiece-specific data set. - ascertaining one or more workpiece parameters of the workpieces to be checked and/or one or more facility parameters of a treatment facility for treating the workpieces to be checked; - processing and/or compiling the one or more workpiece parameters and/or the one or more facility parameters, a workpiece-specific data set being created for each workpiece , after one or more treatment steps have been carried out in one or more treatment stations , the workpieces are supplied to one or more post-treatment stations , depending on the content of the corresponding workpiece-specific data record, in that the workpiece-specific data sets of the workpieces are modified and/or supplemented during and/or after the post-treatment, in particular with workpiece parameters which relate to carrying out the post-treatment, and/or with facility parameters which relate to one or more post-treatment stations , and/or with treatment result parameters which are obtained in a treatment-specific and/or workpiece-specific manner due to the post-treatment, and in that after one or more post-treatment steps have been carried out, the workpieces are supplied to one or more further post-treatment stations , depending on the modified and/or supplemented content of the corresponding workpiece-specific data set.
A method performed by a user equipment, UE, in a mobile communication system, the method comprising: transmitting a radio resource control, RRC, connection request message to an evolved universal terrestrial radio access network, E-UTRAN, node B, eNB; based on the transmitted RRC connection request message, receiving from the eNB an RRC connection setup message including a fast access scheduling, FAS, cell radio network temporary identifier, C-RNTI, allocated to the UE by the eNB and configuration information of an FAS grant mapped to the FAS C-RNTI; transmitting an RRC Connection Setup Complete message to the eNB, based on receiving the RRC connection setup message; detecting a type of an uplink, UL, grant, the UL grant being periodically allocated to the UE by the eNB; determining whether the UL grant of the detected type is the FAS grant which is periodically allocated to the UE by the eNB based on the configuration information; and determining not to transmit a padding medium access control, MAC, protocol data unit, PDU, to the eNB using the FAS grant if the UL grant of the detected type is the FAS grant and there is no data to transmit using the FAS grant , wherein the FAS C-RNTI is a C-RNTI that is allocated to the UE to allow the UE not to transmit the padding MAC PDU using the FAS grant, and the configuration information includes information about an allocation interval of the FAS grant. transmitting a radio resource control, RRC, connection request message to an evolved universal terrestrial radio access network, E-UTRAN, node B, eNB; based on the transmitted RRC connection request message, receiving from the eNB an RRC connection setup message including a fast access scheduling, FAS, cell radio network temporary identifier, C-RNTI, allocated to the UE by the eNB and configuration information of an FAS grant mapped to the FAS C-RNTI; transmitting an RRC Connection Setup Complete message to the eNB, based on receiving the RRC connection setup message; detecting a type of an uplink, UL, grant, the UL grant being periodically allocated to the UE by the eNB; determining whether the UL grant of the detected type is the FAS grant which is periodically allocated to the UE by the eNB based on the configuration information; and determining not to transmit a padding medium access control, MAC, protocol data unit, PDU, to the eNB using the FAS grant if the UL grant of the detected type is the FAS grant and there is no data to transmit using the FAS grant , wherein the FAS C-RNTI is a C-RNTI that is allocated to the UE to allow the UE not to transmit the padding MAC PDU using the FAS grant, and the configuration information includes information about an allocation interval of the FAS grant.