mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical robot system , comprising: a surgical robot configured to operate along a predetermined first surgical path with respect to a surgical site (SP) of a patient (P); a surgical path setting device configured to transmit the first surgical path to the surgical robot and to transmit a surgical path reset command to the surgical robot , when the surgical path reset command is received, to make the surgical robot stop the operation temporarily; and a tracking device configured to confirm the positions of the surgical site of the patient and the surgical robot before a surgery, and to track the positions of the surgical site of the patient and the surgical robot during the surgery; wherein the surgical path setting device is configured to receive locations of multiple surgical path reset positions and surgical path form information, and to reset the first surgical path to a second surgical path based on the locations and the number of multiple surgical path reset positions and the surgical path form information during the surgery; wherein the surgical path form information is determined to be one of a straight line, a curved line, a plane, and a curved surface. a surgical robot configured to operate along a predetermined first surgical path with respect to a surgical site (SP) of a patient (P); a surgical path setting device configured to transmit the first surgical path to the surgical robot and to transmit a surgical path reset command to the surgical robot , when the surgical path reset command is received, to make the surgical robot stop the operation temporarily; and a tracking device configured to confirm the positions of the surgical site of the patient and the surgical robot before a surgery, and to track the positions of the surgical site of the patient and the surgical robot during the surgery; wherein the surgical path setting device is configured to receive locations of multiple surgical path reset positions and surgical path form information, and to reset the first surgical path to a second surgical path based on the locations and the number of multiple surgical path reset positions and the surgical path form information during the surgery; wherein the surgical path form information is determined to be one of a straight line, a curved line, a plane, and a curved surface.
A method for preparing a part to allow its control by guided waves produced by magnetostrictive effect, said part having, after preparation on a first portion of its surface, two elementary strips parallel to each other and brought together, so that these elementary strips are spaced by a distance at most equal to the width of one of the elementary strips , one of said strips being discontinuous and consisting of segments aligned with each other along a curve, and the other of said strips being continuous, each of said strips having magnetostrictive properties.
A method for wireless communication, comprising: receiving , by a user equipment (UE), a primary synchronization signal (PSS) and a secondary synchronization signal (SSS) in a first subframe and a second subframe of a frame, wherein, in the second subframe, the SSS is received in a symbol of the second subframe that is after a symbol of the second subframe in which the PSS is received, and after a set of second symbols of the subframe in which a set of other synchronization signals is received, and wherein, in the first subframe of the frame, the SSS is received in a symbol of the first subframe that is before a symbol of the first subframe in which the PSS is received; and synchronizing , by the UE, with a base station based at least in part on the PSS and the SSS received in the first and the second subframes. receiving , by a user equipment (UE), a primary synchronization signal (PSS) and a secondary synchronization signal (SSS) in a first subframe and a second subframe of a frame, wherein, in the second subframe, the SSS is received in a symbol of the second subframe that is after a symbol of the second subframe in which the PSS is received, and after a set of second symbols of the subframe in which a set of other synchronization signals is received, and wherein, in the first subframe of the frame, the SSS is received in a symbol of the first subframe that is before a symbol of the first subframe in which the PSS is received; and wherein, in the second subframe, the SSS is received in a symbol of the second subframe that is after a symbol of the second subframe in which the PSS is received, and after a set of second symbols of the subframe in which a set of other synchronization signals is received, and wherein, in the first subframe of the frame, the SSS is received in a symbol of the first subframe that is before a symbol of the first subframe in which the PSS is received; and synchronizing , by the UE, with a base station based at least in part on the PSS and the SSS received in the first and the second subframes.
An installation for carrying out a continuous multi-stage industrial process, comprising at least one first space and one second space , wherein these two spaces are equipped such that different process conditions and different pressures prevail in these spaces during the course of the process, wherein these two spaces are connected to one another through a first connecting channel , and wherein a process material can pass successively through the first space , the first connecting channel and the second space , characterized in that a transported material is provided in the first connecting channel in which or with which the process material can pass through the first connecting channel in a process sequence, wherein the connecting channel is equipped such that the transported material together with the process material forms a free-flowing sealing zone in the connecting channel during the course of the process, which sealing zone ensures that different process conditions and pressures are maintained in the two spaces .
A computer-implemented method of enhancing a geologic model of a subsurface region, comprising: (a) obtaining a bed topography of the subsurface region, the bed topography defined by a plurality of cells , each of the plurality of cells having an elevation associated with its cell center, (b) representing the bed topography as a cell-centered piecewise constant representation based on the elevations associated with the plurality of cells ; (c) reconstructing the bed topography to produce a spatially continuous surface; (d) calculating flux and gravitational force-related source terms based on the reconstructed bed topography ; (e) calculating fluxes between at least two of the cells , taking into account variations of the bed topography across a face between the at least two of the cells ; (f) predicting at least one of fluid flow, deposition of sediments onto the bed, and erosion of sediments from the bed using the fluxes and gravitational force-related source terms; (g) inputting the predicted at least one of fluid flow, deposition and erosion into the geologic model of the subsurface region; (h) using the geologic model to predict characteristics of the subsurface region; and (i) outputting the predicted characteristics of the subsurface region. (a) obtaining a bed topography of the subsurface region, the bed topography defined by a plurality of cells , each of the plurality of cells having an elevation associated with its cell center, (b) representing the bed topography as a cell-centered piecewise constant representation based on the elevations associated with the plurality of cells ; (c) reconstructing the bed topography to produce a spatially continuous surface; (d) calculating flux and gravitational force-related source terms based on the reconstructed bed topography ; (e) calculating fluxes between at least two of the cells , taking into account variations of the bed topography across a face between the at least two of the cells ; (f) predicting at least one of fluid flow, deposition of sediments onto the bed, and erosion of sediments from the bed using the fluxes and gravitational force-related source terms; (g) inputting the predicted at least one of fluid flow, deposition and erosion into the geologic model of the subsurface region; (h) using the geologic model to predict characteristics of the subsurface region; and (i) outputting the predicted characteristics of the subsurface region.
Working cylinder with a cylinder casing , in the cylinder interior of which is mounted a driving piston , capable of linear movement under fluidic pressurisation, wherein the cylinder casing is mounted between two cylinder covers closing the cylinder interior , wherein the cylinder covers each have a central section and an outer frame section , with at least four mounting areas and encompassing the central section , wherein there is formed between the frame section and the central section an annular space, in which are provided reinforcing struts aligned radially and each extending towards an assigned mounting area , characterised in that outer surfaces of each reinforcing strut diverge away from the assigned mounting area towards the central section , wherein each of the reinforcing struts has a recess , wherein a frame-like reinforcing structure comprised of two strut legs is formed by the recess, and wherein the strut legs of each reinforcing strut diverge from the mounting area towards the central section .
Thermal battery comprising an enclosure comprising a fluid inlet and a fluid outlet and comprising, within it, a phase-change material encapsulated in the form of at least one tube , at least one tube being spiral-wound within the enclosure, characterized in that said spiral-winding of the tube is performed around a winding axis (A) parallel to the flow of circulation of the fluid within said thermal battery and comprises a central part along the winding axis (A), said central part comprising longitudinal tubes of encapsulated phase-change material.
Workpiece holder with a base part and at least one supporting element , wherein the base part has a first rectilinear guide element and a second rectilinear guide element which is spaced apart from the first rectilinear guide element , and in that there is at least one first support block , which is arranged in a linearly displaceable manner on the first rectilinear guide element , and in that there is at least one second support block , which is arranged in a linearly displaceable manner on the second rectilinear guide element , characterized in that a. the supporting element is connected both to the first support block in a movable manner, namely in a pivotable manner relative to the first rectilinear guide element , and to the second support block in a movable manner, namely in a pivotable manner relative to the second rectilinear guide element , and/or in that b. the supporting element is connected both to the first support block and to the second support block in such a manner that the support blocks are linearly displaceable independently of each other. a. the supporting element is connected both to the first support block in a movable manner, namely in a pivotable manner relative to the first rectilinear guide element , and to the second support block in a movable manner, namely in a pivotable manner relative to the second rectilinear guide element , and/or in that b. the supporting element is connected both to the first support block and to the second support block in such a manner that the support blocks are linearly displaceable independently of each other.
A method of manufacturing a curved electronic device , the method comprising - providing a stack with a substrate comprising a thermoplastic material (Ms), and at least one electronic component connected to an electronic circuit disposed on the substrate ; - illuminating a surface of the substrate with light (L) to heat at least part of the thermoplastic material (M) above its glass transition temperature (Tg); and - applying a deformation process (D) to the at least partially heated substrate to deform the stack into the curved electronic device ; characterized in that a component area of the substrate surface localized around the electronic component comprises a first material (M1) providing relatively low absorption (A1) of the light (L), and a surrounding area of the substrate , outside the component area , comprises a second material (M2) providing relatively high absorption (A2) of the light (L), wherein the first material (M1) comprises a reflective coating with a higher reflection coefficient (R1) to the light (L) than the thermoplastic material (Ms) of the substrate beneath and/or the second material (M2) comprises an absorptive coating having a higher absorption coefficient (A2) to the light (L) than the thermoplastic material (Ms) of the substrate beneath, wherein, during a time (t1-t5) of the illuminating, the difference in absorption (A2-A1) causes buildup of a differential temperature profile (T1-T5) in the thermoplastic material (Ms) along a surface coordinate (X) of the substrate , wherein the component area around the electronic component maintains a lower temperature than the surrounding area , wherein at a time (t6) of the deformation process (D), the thermoplastic material (Ms) at the surrounding area has a relatively high temperature (Th) above the glass transition temperature (Tg) to provide a relatively low resistance to the deformation process (D) while the thermoplastic material (Ms) at the component area around the electronic component has a relatively low temperature (Tl) below the glass transition temperature (Tg) to provide a relatively high resistance to deformation process (D) for preventing excess stress on the electronic component and/or its connection to the electronic circuit . - providing a stack with a substrate comprising a thermoplastic material (Ms), and at least one electronic component connected to an electronic circuit disposed on the substrate ; - illuminating a surface of the substrate with light (L) to heat at least part of the thermoplastic material (M) above its glass transition temperature (Tg); and - applying a deformation process (D) to the at least partially heated substrate to deform the stack into the curved electronic device ;
A rubber composition for tire tread, the rubber composition comprising: 100 parts by weight of a raw rubber; 100 to 130 parts by weight of a reinforcing filler; 5 to 100 parts by weight of a hydrocarbon-based resin; and 5 to 50 parts by weight of a hydrogenated styrene-butadiene rubber; wherein the raw rubber is a solution polymerized styrene-butadiene rubber having 10 to 30 wt% of a styrene content, 10 to 40 wt% of a vinyl content within butadiene, 500,000 to 900,000 g/mol of a weight average molecular weight (M w ), and -70 to -55 °C of a glass transition temperature and which is denaturalized into a rubber chain by using silicate such as tetraethyl orthosilicate. 100 parts by weight of a raw rubber; 100 to 130 parts by weight of a reinforcing filler; 5 to 100 parts by weight of a hydrocarbon-based resin; and 5 to 50 parts by weight of a hydrogenated styrene-butadiene rubber; wherein the raw rubber is a solution polymerized styrene-butadiene rubber having 10 to 30 wt% of a styrene content, 10 to 40 wt% of a vinyl content within butadiene, 500,000 to 900,000 g/mol of a weight average molecular weight (M w ), and -70 to -55 °C of a glass transition temperature and which is denaturalized into a rubber chain by using silicate such as tetraethyl orthosilicate.
A recovery method for a terminal device startup failure, comprising: determining that a failure indication event occurs in a startup process, wherein the failure indication event is used to indicate a startup failure; determining a startup stage at which the failure indication event occurs; determining at least one recovery policy based on a type of the failure indication event and/or a cause of the failure indication event; and performing startup recovery based on the at least one recovery policy, characterized by : saving in a table a mapping relationship between the at least one recovery policy and each type of the failure indication event and/or cause of the failure indication event, a startup stage at which the failure indication event occurs, and a quantity of current recovery times, wherein the determining at least one recovery policy is based on the type of the failure indication event and/or the cause of the failure indication event, the startup stage, the quantity of current recovery times, and the mapping relationship. determining that a failure indication event occurs in a startup process, wherein the failure indication event is used to indicate a startup failure; determining a startup stage at which the failure indication event occurs; determining at least one recovery policy based on a type of the failure indication event and/or a cause of the failure indication event; and performing startup recovery based on the at least one recovery policy, characterized by : saving in a table a mapping relationship between the at least one recovery policy and each type of the failure indication event and/or cause of the failure indication event, a startup stage at which the failure indication event occurs, and a quantity of current recovery times, wherein the determining at least one recovery policy is based on the type of the failure indication event and/or the cause of the failure indication event, the startup stage, the quantity of current recovery times, and the mapping relationship. saving in a table a mapping relationship between the at least one recovery policy and each type of the failure indication event and/or cause of the failure indication event, a startup stage at which the failure indication event occurs, and a quantity of current recovery times, wherein the determining at least one recovery policy is based on the type of the failure indication event and/or the cause of the failure indication event, the startup stage, the quantity of current recovery times, and the mapping relationship.
A liquid crystal display (LCD) system comprising: a plurality of groups of transistors which form a pixel array of said LCD; a plurality of backlight units , forming a backlight surface of said LCD, wherein the backlight units are independently controllable; a data refresh module configured to periodically refresh data at said groups of transistors, at a specified order and at a specified refresh rate over a specified period; and a backlight control module configured to periodically dim the backlight units at said specified order and at a specified dimming rate over said period to dim the backlight associated with the one or more of the transistor groups whenever the data at said transistor groups is being refreshed, the system characterized in that : wherein said specified dimming rate is 3 to 10 times higher than the specified refresh rate wherein the LCD is a micro display integrated within a head mounted display (HMD), wherein said specified dimming rate is selected to eliminate a smearing of an image projected from the micro display over a retina of an eye of a viewer wearing the HMD, whenever a head of the viewer is moving, wherein the dimming is carried out independently at variable levels so that some of the backlight units are dimmed more or less than others during said specified period. a plurality of groups of transistors which form a pixel array of said LCD; a plurality of backlight units , forming a backlight surface of said LCD, wherein the backlight units are independently controllable; a data refresh module configured to periodically refresh data at said groups of transistors, at a specified order and at a specified refresh rate over a specified period; and a backlight control module configured to periodically dim the backlight units at said specified order and at a specified dimming rate over said period to dim the backlight associated with the one or more of the transistor groups whenever the data at said transistor groups is being refreshed, the system characterized in that : wherein said specified dimming rate is 3 to 10 times higher than the specified refresh rate wherein the LCD is a micro display integrated within a head mounted display (HMD), wherein said specified dimming rate is selected to eliminate a smearing of an image projected from the micro display over a retina of an eye of a viewer wearing the HMD, whenever a head of the viewer is moving, wherein the dimming is carried out independently at variable levels so that some of the backlight units are dimmed more or less than others during said specified period.
A solar power plant comprising a pliable mat having a plurality of photovoltaic (PV) modules fixed thereon, each PV module being releasably secured to the mat by means of an attachment assembly which comprises at least one elongate module profile secured to an edge of the PV module , and a corresponding elongate mat profile attached to the mat , and the profiles are configured such that the PV module is releasably secured to the mat by bringing the module profile into contact with the corresponding mat profile , and sliding the profiles relative to one another in a direction generally parallel to the edge of the PV module to which the module profile is secured, until they reach a desired end position in which separation of the two profiles by the application of a force generally perpendicular to the edge of the PV module is substantially prevented.