mhurhangee/patent-ind-claim-en huggingface dataset:
A module for a tool pack assembly for use in the high cyclic manufacture of container bodies, comprising: a. a generally cylindrical module body with a bore therethrough for a reciprocating can forming punch, an external perimeter wall having a cavity therein, a front face having an annular channel therein and a passageway extending between said annular channel and said cavity in said external perimeter wall; b. a sensor plate assembly comprising a plate body and at least one sensor and at least one raised surface , the plate body configured for placement into said annular channel of said front face of said module body ; and c. an electronic element for placement into said cavity of said external perimeter wall of said module body, said electronic element in communication with said sensor plate assembly . a. a generally cylindrical module body with a bore therethrough for a reciprocating can forming punch, an external perimeter wall having a cavity therein, a front face having an annular channel therein and a passageway extending between said annular channel and said cavity in said external perimeter wall; b. a sensor plate assembly comprising a plate body and at least one sensor and at least one raised surface , the plate body configured for placement into said annular channel of said front face of said module body ; and c. an electronic element for placement into said cavity of said external perimeter wall of said module body, said electronic element in communication with said sensor plate assembly .
An inertial measurement unit comprising at least one MEMS-based inertial sensor that is arranged to output an inertial measurement, a primary temperature sensor spatially associated with each MEMS-based inertial sensor, the primary temperature sensor being a physically separate temperature sensor located next to each MEMS-based inertial sensor or formed by each MEMS-based inertial sensor itself, and a plurality of secondary temperature sensors that each has a different spatial location to the primary temperature sensor and a different spatial location to one another around each MEMS-based inertial sensor, wherein each of the primary and secondary temperature sensors is arranged to output a different temperature measurement, and comprising a processor arranged to process the different temperature measurements so as to determine a spatial temperature gradient output, wherein the processor is further arranged to determine a compensation for the inertial measurement, or an associated parametric error, based on the spatial temperature gradient output; characterised in that the at least one MEMS-based inertial sensor comprises a MEMS substrate and at least one secondary temperature sensor is located on the MEMS substrate; and wherein: the at least one inertial sensor comprises an integrated circuit and at least one secondary temperature sensor forms part of the integrated circuit; or the processor is located on a printed circuit board and at least one secondary temperature sensor is located on the same printed circuit board; or at least one secondary temperature sensor is located at or on an electrical connector for a host system . the at least one inertial sensor comprises an integrated circuit and at least one secondary temperature sensor forms part of the integrated circuit; or the processor is located on a printed circuit board and at least one secondary temperature sensor is located on the same printed circuit board; or at least one secondary temperature sensor is located at or on an electrical connector for a host system .
A heated screed construction for laying on an insulation layer, comprising: - sheet elements for receiving heating pipes; - heating pipes; - calcium sulfate screed; wherein said heated screed construction without said insulation layer has an installation height of less than 35 mm; wherein said sheet elements are unfilled, open nub elements; wherein said insulation layer is selected from expanded polystyrene (EPS), soft wood fibers, mineral wool, rubber, or foamed polyurethane or phenol resin, vacuum insulation materials, or aerogel-based insulation materials; with the following composition of the calcium sulfate screed: - from 50 to 80% aggregates made of limestone, silica sand or natural anhydrite having grain sizes of between from 0 to 0.5 mm and from 0 to 2.5 mm; - from 20 to 50% CaSO 4 binder; - additives, such as flow improvers and setting regulation agents. - sheet elements for receiving heating pipes; - heating pipes; - calcium sulfate screed; - from 50 to 80% aggregates made of limestone, silica sand or natural anhydrite having grain sizes of between from 0 to 0.5 mm and from 0 to 2.5 mm; - from 20 to 50% CaSO 4 binder; - additives, such as flow improvers and setting regulation agents.
A method of detecting a local bacterial infection, critical bacterial colonization, bacterial infection in a wound, or predicting wound healing in a wound, comprising: (a) contacting a test sample from a wound with a human neutrophil elastase inhibitor and a bacterial protease substrate; and (b) detecting the amount of bacterial protease activity on the substrate; wherein: (i) 125 or more milliunits of equivalent bacterial protease activity indicates a local bacterial infection, critical bacterial colonization, or bacterial infection in the wound; or (ii) wherein 125 or more milliunits of equivalent bacterial protease activity indicates that the wound is a non-healing wound. (a) contacting a test sample from a wound with a human neutrophil elastase inhibitor and a bacterial protease substrate; and (b) detecting the amount of bacterial protease activity on the substrate; wherein: (i) 125 or more milliunits of equivalent bacterial protease activity indicates a local bacterial infection, critical bacterial colonization, or bacterial infection in the wound; or (ii) wherein 125 or more milliunits of equivalent bacterial protease activity indicates that the wound is a non-healing wound. (i) 125 or more milliunits of equivalent bacterial protease activity indicates a local bacterial infection, critical bacterial colonization, or bacterial infection in the wound; or (ii) wherein 125 or more milliunits of equivalent bacterial protease activity indicates that the wound is a non-healing wound.
A mammary implant comprising: an outer shell configured to retain a fluid therein; an injection element coupled to the outer shell and adapted to receive therethrough an injection device for injecting fluid into said outer shell ; and an injection marker zone comprised of a cured material having ultrasonically detectable markers incorporated therein, wherein the markers are a plurality of microcavities that are located relative to the injection element so that, when ultrasonically detected, such detection indicates a location of the injection element , wherein the injection marker zone forms part of the injection element , and wherein the plurality of microcavities are embedded within the cured material which comprises at least a part of said injection element . an outer shell configured to retain a fluid therein; an injection element coupled to the outer shell and adapted to receive therethrough an injection device for injecting fluid into said outer shell ; and an injection marker zone comprised of a cured material having ultrasonically detectable markers incorporated therein, wherein the markers are a plurality of microcavities that are located relative to the injection element so that, when ultrasonically detected, such detection indicates a location of the injection element , wherein the injection marker zone forms part of the injection element , and wherein the plurality of microcavities are embedded within the cured material which comprises at least a part of said injection element .
A copper-containing silicoaluminophosphate (SAPO) molecular sieve with coexisting crystal phases of CHA and GME, wherein the X-ray diffraction pattern of the molecular sieve comprises at least the following diffraction peaks: No. 2θ FWHM [2θ] (half-peak width) 1 7.40~7.56 0.15~0.35 2 9.20~9.70 0.25~0.65 3 12.80~12.92 0.06~0.09 4 15.80~16.21 0.15~0.40 5 17.60~17.82 0.05~0.11 6 20.30~20.90 0.15~0.40 7 21.75~22.05 0.06~0.09 8 25.65~26.05 0.05~0.09 9 30.11~30.96 0.20~0.45
Process for the synthesis of ammonia from a make-up gas containing hydrogen and nitrogen, said process comprising the steps of: production of a synthesis gas containing hydrogen and nitrogen in a molar ratio lower than 3, inside a front-end section ; a first cryogenic purification of said synthesis gas, suitable to remove nitrogen and raise the hydrogen/nitrogen molar ratio of said gas to a predetermined value; compression of the purified synthesis gas to a synthesis pressure; conversion of synthesis gas into ammonia inside a synthesis loop , with extraction from said loop of a purge stream containing hydrogen and inert gases; characterized by: performing a second purification of at least one portion of said purge stream , by means of a process suitable to recover at least part of the hydrogen contained therein, with the production of at least one stream containing recovered hydrogen and of at least one waste stream , recycling said at least one stream containing recovered hydrogen to said process, in order to increase the ammonia production, wherein at least a part of said at least one stream containing recovered hydrogen is recycled by means of joining with the gas stream undergoing said first cryogenic purification step. production of a synthesis gas containing hydrogen and nitrogen in a molar ratio lower than 3, inside a front-end section ; a first cryogenic purification of said synthesis gas, suitable to remove nitrogen and raise the hydrogen/nitrogen molar ratio of said gas to a predetermined value; compression of the purified synthesis gas to a synthesis pressure; conversion of synthesis gas into ammonia inside a synthesis loop , with extraction from said loop of a purge stream containing hydrogen and inert gases; characterized by: performing a second purification of at least one portion of said purge stream , by means of a process suitable to recover at least part of the hydrogen contained therein, with the production of at least one stream containing recovered hydrogen and of at least one waste stream , recycling said at least one stream containing recovered hydrogen to said process, in order to increase the ammonia production, wherein at least a part of said at least one stream containing recovered hydrogen is recycled by means of joining with the gas stream undergoing said first cryogenic purification step. performing a second purification of at least one portion of said purge stream , by means of a process suitable to recover at least part of the hydrogen contained therein, with the production of at least one stream containing recovered hydrogen and of at least one waste stream , recycling said at least one stream containing recovered hydrogen to said process, in order to increase the ammonia production, wherein at least a part of said at least one stream containing recovered hydrogen is recycled by means of joining with the gas stream undergoing said first cryogenic purification step.
A packaging machine adapted to fold at least one of the protective-material flat sheets of a load that comprises: a substantially parallelepiped-shaped, item to be packaged , and one or more protective-material flat sheets that are placed to cover the base and/or the top of said item to be packaged and furthermore cantileverly jut out from the sidewalls of said item to be packaged ; said packaging machine comprising: a ground-resting and self-supporting framework ; a linear conveyor which is placed on the self-supporting framework and is adapted to move forward the load in a substantially horizontal, first direction (d); at least a first pair of movable shoulders that are arranged one in front of the other above the linear conveyor , extend parallel to said first direction (d), and are horizontally movable above the linear conveyor substantially perpendicular to said first direction (d); and at least a first moving device which is adapted to move said movable shoulders towards and away from one another; said packaging machine also comprising at least one section-bar magazine which is adapted to contain a plurality of rectilinear section-bars , each of which is structured so as to cover and protect a vertical edge of the item to be packaged ; and being characterized by additionally comprising an insertion assembly which is located at one of the two ends of the aisle laterally delimited by said movable shoulders , is movable over the linear conveyor and is adapted to pick up at least one rectilinear section-bar from the section-bar magazine and then to arrange/place said rectilinear section-bar in abutment against at least one of the vertical edges of the item to be packaged stationary between said movable shoulders .
A method for communicating data over a transmission medium with noise and attenuation that exhibit, as functions of frequency, a static component, which is defined as a predictable or average function that is independent of time, and a dynamic component, varying in both time and location, a transmission channel of the transmission medium being divided into at least two wideband subchannels, wherein one symbol transmitted over a wideband subchannel occupies less than 50 cycles of a transmission carrier, wherein the data is transmitted over the transmission medium, the method comprising: identifying the static component of the transmission medium for wideband communications having at least two subchannels; determining a function of noise and/or attenuation versus frequency for the static component ; selecting wideband modulation schemes for the subchannels , which are made non-interfering or orthogonal to the other subchannels, to achieve an increased or highest total throughput at a required error rate, based upon the static functions of noise and attenuation versus frequency; transmitting a data signal over the subchannels ; identifying a dynamic component of the transmission medium for the wideband communications ; creating an adaptive filter based on the dynamic component ; and applying the adaptive filter to a received data signal at a receiver . identifying the static component of the transmission medium for wideband communications having at least two subchannels; determining a function of noise and/or attenuation versus frequency for the static component ; selecting wideband modulation schemes for the subchannels , which are made non-interfering or orthogonal to the other subchannels, to achieve an increased or highest total throughput at a required error rate, based upon the static functions of noise and attenuation versus frequency; transmitting a data signal over the subchannels ; identifying a dynamic component of the transmission medium for the wideband communications ; creating an adaptive filter based on the dynamic component ; and applying the adaptive filter to a received data signal at a receiver .
Current measurement sensor of the Rogowski-torus type including a carrier made of amagnetic materials and a secondary winding wound onto said carrier so as to deliver an electrical signal that is representative of a current flowing through a conductor passing through the inside of the torus, said carrier being made primarily of a moulded rigid plastic material and includes at least one outer recess that is distributed along the length or around the circumference of the body of the carrier, said recess including at least two grooves that are separated by a partition , characterized in that the carrier is made of amorphous resin with a glass transition temperature (Tg) that is higher than 200°C.
Surgical system for cutting an anatomical structure (F, T) of a patient according to at least one target plane defined in a coordinate system of the anatomical structure, comprising: (i) a robotic device comprising: - an end effector , - an actuation unit having at least three motorized degrees of freedom, configured for adjusting a position and orientation of the end effector relative to each target plane, - a passive planar mechanism connecting a terminal part of the actuation unit to the end effector , the passive planar mechanism being configured to constrain movement of the end effector only inside a plane, the passive planar mechanism allowing a user to freely move the end effector inside said plane according to at least two degrees of freedom ; (ii) a tracker rigidly attached to the end effector , (iii) a tracking unit configured to determine in real time the pose of the end effector with respect to the coordinate system of the anatomical structure, (iv) a control unit configured to determine the pose of the end effector with respect to the target plane and to control the actuation unit so as to bring the cutting plane into alignment with the target plane. (i) a robotic device comprising: - an end effector , - an actuation unit having at least three motorized degrees of freedom, configured for adjusting a position and orientation of the end effector relative to each target plane, - a passive planar mechanism connecting a terminal part of the actuation unit to the end effector , the passive planar mechanism being configured to constrain movement of the end effector only inside a plane, the passive planar mechanism allowing a user to freely move the end effector inside said plane according to at least two degrees of freedom ; - an end effector , - an actuation unit having at least three motorized degrees of freedom, configured for adjusting a position and orientation of the end effector relative to each target plane, - a passive planar mechanism connecting a terminal part of the actuation unit to the end effector , the passive planar mechanism being configured to constrain movement of the end effector only inside a plane, the passive planar mechanism allowing a user to freely move the end effector inside said plane according to at least two degrees of freedom ; (ii) a tracker rigidly attached to the end effector , (iii) a tracking unit configured to determine in real time the pose of the end effector with respect to the coordinate system of the anatomical structure, (iv) a control unit configured to determine the pose of the end effector with respect to the target plane and to control the actuation unit so as to bring the cutting plane into alignment with the target plane.
A system comprising: a proximity/contact sensor attached to a vehicle that receives a device ID from a wearable device (50; 51) of a user or a computing device of the user; a biometric sensor (20; 58) that receives biometric data of the user; a control module that accesses a user database storing authorized user information and determines whether the user is authorized for the vehicle based on the device ID, the biometric data, and the user database; wherein the control module unlocks the vehicle in response to a determination that the user is authorized for the vehicle, and wherein the control module accesses a validation data server and updates the user database based on additional authorized user information received from the validation data server. a proximity/contact sensor attached to a vehicle that receives a device ID from a wearable device (50; 51) of a user or a computing device of the user; a biometric sensor (20; 58) that receives biometric data of the user; a control module that accesses a user database storing authorized user information and determines whether the user is authorized for the vehicle based on the device ID, the biometric data, and the user database; wherein the control module unlocks the vehicle in response to a determination that the user is authorized for the vehicle, and wherein the control module accesses a validation data server and updates the user database based on additional authorized user information received from the validation data server.
An air conditioner indoor unit , two opposite sides of the air conditioner indoor unit being an air outlet side and a leeward side respectively, and the air conditioner indoor unit comprising: a panel assembly and an air outlet frame inserted to the panel assembly , a length direction of the air outlet frame being defined as a first dimension, a width direction of the air outlet frame being defined as a second dimension, a plane perpendicular to the first dimension and the second dimension being defined as a third dimension, wherein the panel assembly defines a mounting through cavity provided close to the air outlet side , the air outlet frame is mounted at the mounting through cavity , the panel assembly is provided with an assembly strip at an edge of the mounting through cavity , the assembly strip defines a first through hole and a second through hole therein, the air outlet frame is provided with a snap hook and an insertion plate at an edge thereof, the snap hook passes through the first through hole and is hooked to an outside of the assembly strip to limit movement of the air outlet frame in the third dimension, the insertion plate is inserted into the second through hole and slides in the second through hole , and the insertion plate has a front end clamped to a front end of the second through hole in an insertion direction, the insertion plate limits movement of the air outlet frame in the first dimension and the second dimension.