mhurhangee/patent-ind-claim-en huggingface dataset:
Top for a mobile patient bed, a stretcher or a hospital transporter, the top having an upper face and a lower face, and the upper face having at least one trough-shaped recess with a base , characterized in that side walls are formed on the long faces of the top , in that a first region of the side walls extends upward from the base and delimits the trough-shaped recess , in that a second region of the side walls projects downward beyond the base , and in that a clear width (W) between the second regions of the side walls is greater than a width (B) of a patient bed, a hospital transporter and/or a stretcher .
A wheel assembly to be coupled to a hub of a vehicle, the wheel assembly comprising: an inner rim to be coupled to the hub of the vehicle; an outer rim surrounding the hub; a plurality of gas springs operatively coupled between said inner rim and said outer rim to provide a gas suspension for relative movement between said inner rim and said outer rim ; an outer ring coupled to said outer rim ; and an inner ring coupled to said inner rim , characterized in that said inner ring defines a closeable gap with adjacent portions of said outer ring to define a mechanical stop to limit relative movement of said inner rim and outer rim . an inner rim to be coupled to the hub of the vehicle; an outer rim surrounding the hub; a plurality of gas springs operatively coupled between said inner rim and said outer rim to provide a gas suspension for relative movement between said inner rim and said outer rim ; an outer ring coupled to said outer rim ; and an inner ring coupled to said inner rim , characterized in that said inner ring defines a closeable gap with adjacent portions of said outer ring to define a mechanical stop to limit relative movement of said inner rim and outer rim .
An electret web comprising: a thermoplastic resin; and at least one charge-enhancing additive comprising a mercapto-benzothiazole salt or mercapto-benzoxazole salt with the general structure of Formula 2: wherein the Y is an O or S group; the groups R 1 , R 2 , R 3 , and R 4 independently comprise a hydrogen atom, an alkyl, an aryl, an alkoxy, an alkanoyl, or a substituted alkyl group; M is a metal ion with a valence of n; and n is an integer of 1,2, or 3. a thermoplastic resin; and at least one charge-enhancing additive comprising a mercapto-benzothiazole salt or mercapto-benzoxazole salt with the general structure of Formula 2: wherein the Y is an O or S group; the groups R 1 , R 2 , R 3 , and R 4 independently comprise a hydrogen atom, an alkyl, an aryl, an alkoxy, an alkanoyl, or a substituted alkyl group; M is a metal ion with a valence of n; and n is an integer of 1,2, or 3.
A process for the preparation of a compound of formula (I) or a pharmaceutically acceptable salt thereof; comprising reacting a compound of formula (V) with a compound of formula (VI), wherein L 1 is a leaving group; in the presence of an inorganic base; wherein the inorganic base does not form water when reacted with or contacted with an acid and is selected from K 2 HPO 4 and K 3 PO 4 ; in a first organic solvent; at a temperature in the range of from about 40°C to about 70°C; to yield the corresponding compound of formula (VII); and reacting the compound of formula (VII) to yield the corresponding compound of formula (I).
An elongated frame element extending in a first direction and for mounting along at least a part of the edge of a substantially plane wall unit , wherein said frame element is a U-shaped profile having two legs , where the U-shaped profile is adapted to receive a wall unit in a groove between the legs of the U-shaped profile, said elongated frame element comprises at least two interconnected elongated profile elements; - a first base element constituting the main part of said U-profile by comprising one leg and the bottom part of the U-shape, the first base element further having a part of the second leg of the U-shape, and - further having a second attachable plate element constituting at least a part of the second leg of said U-profile, and - wherein said elongated profile elements comprise mutual engagement means enabling the second attachable plate element to be connected to a surface of the first base element , thereby completing the partial U-shape of the first base element , such that a complete U-shape is formed, characterised in that the second attachable plate element is locked to said first base element by displacing said second attachable plate element along said surface of said first base element . - a first base element constituting the main part of said U-profile by comprising one leg and the bottom part of the U-shape, the first base element further having a part of the second leg of the U-shape, and - further having a second attachable plate element constituting at least a part of the second leg of said U-profile, and - wherein said elongated profile elements comprise mutual engagement means enabling the second attachable plate element to be connected to a surface of the first base element , thereby completing the partial U-shape of the first base element , such that a complete U-shape is formed, characterised in that the second attachable plate element is locked to said first base element by displacing said second attachable plate element along said surface of said first base element .
A sensor for detecting a fluid, the sensor comprising: an optical parametric oscillator having a down converted wave cavity and a non-linear material provided in the down converted wave cavity, the non-linear material being adapted to convert, via a parametric process, pump light into down converted light of two different wavelengths, the first wavelength being longer than the second wavelength, wherein the down converted wave cavity is arranged to resonate only one of the first and second wavelengths, means for modulating, the means for modulating configured to modulate light in the down converted wave cavity to induce an acoustic or pressure wave caused by absorption of the resonant one of the first and second wavelengths by a fluid in the down converted wave cavity, and means for detecting the acoustic or pressure wave, the means for detecting the acoustic or pressure wave being located in the down-converted wave cavity. an optical parametric oscillator having a down converted wave cavity and a non-linear material provided in the down converted wave cavity, the non-linear material being adapted to convert, via a parametric process, pump light into down converted light of two different wavelengths, the first wavelength being longer than the second wavelength, wherein the down converted wave cavity is arranged to resonate only one of the first and second wavelengths, means for modulating, the means for modulating configured to modulate light in the down converted wave cavity to induce an acoustic or pressure wave caused by absorption of the resonant one of the first and second wavelengths by a fluid in the down converted wave cavity, and means for detecting the acoustic or pressure wave, the means for detecting the acoustic or pressure wave being located in the down-converted wave cavity.
A method for an automated quality check of a manufactured shoe sole comprising the steps of a. generating a three-dimensional scan of the shoe sole ; and b. comparing the result of the three-dimensional scan with stored design data, c. wherein a scanning unit configured to generate the three-dimensional scan of the shoe sole is moved around the shoe sole . a. generating a three-dimensional scan of the shoe sole ; and b. comparing the result of the three-dimensional scan with stored design data, c. wherein a scanning unit configured to generate the three-dimensional scan of the shoe sole is moved around the shoe sole .
A method for storing and transporting sleeves on a textile machine having a plurality of workstations disposed adjacent to each other and on opposite sides of the machine along a longitudinal axis of the machine (M) and having winding devices, yarn being wound onto a sleeve therein, and having a transport device for transporting sleeves from a plurality of sleeve magazines (7.1, 7.2, 7.3, 7.4) disposed on both sides of the machine to the workstation , wherein sleeves are received in the sleeve magazine (7.1, 7.2, 7.3, 7.4) and the longitudinal axes (H) thereof are substantially horizontal and aligned transverse to the longitudinal axis of the machine (M), wherein the individual sleeve is removed from the sleeve magazine (7.1, 7.2, 7.3, 7.4) in the direction of the sleeve axis (H) and displaced in the direction toward the longitudinal axis of the machine (M) between the sleeve magazines (7.1, 7.2, 7.3, 7.4) disposed on both sides of the machine characterized in that the sleeve is selectively rotated by about 90° to the left or the right, according to the desired alignment of the sleeve , after removal from the sleeve magazine (7.1, 7.2, 7.3, 7.4).
An exhaust gas analysis system comprising: a particle concentration measurement device that measures concentration of particles contained in exhaust gas; a sampling cooling pipe that has an exhaust gas inlet introducing the exhaust gas and an exhaust gas outlet connected to the particle concentration measurement device , and cools the introduced exhaust gas to a measurable temperature of the particle concentration measurement device without dilution to guide the introduced exhaust gas; a temperature sensor that detects temperature of the exhaust gas flowing into the exhaust gas inlet ; and a calculation device that uses a relational expression between the temperature of the exhaust gas and particle concentration at the exhaust gas inlet and the temperature of the exhaust gas and the particle concentration at the exhaust gas outlet , and from the detected temperature by the temperature sensor and the temperature of the exhaust gas introduced into the particle concentration measurement device , corrects the measured particle concentration by the particle concentration measurement device to calculate the particle concentration of the exhaust gas flowing into the exhaust gas inlet , characterized in that the exhaust gas analysis system further comprises a second temperature sensor that detects the temperature of the exhaust gas flowing into the particle concentration measurement device , wherein the calculation device uses the detected temperature by the second temperature sensor as the temperature of the exhaust gas flowing into the particle concentration measurement device . a particle concentration measurement device that measures concentration of particles contained in exhaust gas; a sampling cooling pipe that has an exhaust gas inlet introducing the exhaust gas and an exhaust gas outlet connected to the particle concentration measurement device , and cools the introduced exhaust gas to a measurable temperature of the particle concentration measurement device without dilution to guide the introduced exhaust gas; a temperature sensor that detects temperature of the exhaust gas flowing into the exhaust gas inlet ; and a calculation device that uses a relational expression between the temperature of the exhaust gas and particle concentration at the exhaust gas inlet and the temperature of the exhaust gas and the particle concentration at the exhaust gas outlet , and from the detected temperature by the temperature sensor and the temperature of the exhaust gas introduced into the particle concentration measurement device , corrects the measured particle concentration by the particle concentration measurement device to calculate the particle concentration of the exhaust gas flowing into the exhaust gas inlet , characterized in that the exhaust gas analysis system further comprises a second temperature sensor that detects the temperature of the exhaust gas flowing into the particle concentration measurement device , wherein the calculation device uses the detected temperature by the second temperature sensor as the temperature of the exhaust gas flowing into the particle concentration measurement device .
A system , comprising: a host system comprising a host streaming subsystem ; and one or more spectator systems , each spectator system comprising a spectator streaming subsystem ; wherein the host streaming subsystem is configured to: generate, at an initialization stage of the host system , one or more static command buffers representing a plurality of commands associated with one or more objects within a three-dimensional environment of a video game; convert the one or more static command buffers into one or more static reference buffers; broadcast the one or more static reference buffers to the one or more spectator systems ; generate one or more dynamic delta command buffers representing changes in one or more object attributes within the three-dimensional environment; convert the one or more dynamic delta command buffers into one or more geometry stream buffers; broadcast the one or more geometry stream buffers to the one or more spectator systems ; and wherein each spectator streaming subsystem is configured to execute the one or more static reference buffers and the one or more geometry stream buffers broadcast by the host streaming subsystem to render the three-dimensional environment of the host system locally at the spectator system . a host system comprising a host streaming subsystem ; and one or more spectator systems , each spectator system comprising a spectator streaming subsystem ; wherein the host streaming subsystem is configured to: generate, at an initialization stage of the host system , one or more static command buffers representing a plurality of commands associated with one or more objects within a three-dimensional environment of a video game; convert the one or more static command buffers into one or more static reference buffers; broadcast the one or more static reference buffers to the one or more spectator systems ; generate one or more dynamic delta command buffers representing changes in one or more object attributes within the three-dimensional environment; convert the one or more dynamic delta command buffers into one or more geometry stream buffers; generate, at an initialization stage of the host system , one or more static command buffers representing a plurality of commands associated with one or more objects within a three-dimensional environment of a video game; convert the one or more static command buffers into one or more static reference buffers; broadcast the one or more static reference buffers to the one or more spectator systems ; generate one or more dynamic delta command buffers representing changes in one or more object attributes within the three-dimensional environment; convert the one or more dynamic delta command buffers into one or more geometry stream buffers; broadcast the one or more geometry stream buffers to the one or more spectator systems ; and wherein each spectator streaming subsystem is configured to execute the one or more static reference buffers and the one or more geometry stream buffers broadcast by the host streaming subsystem to render the three-dimensional environment of the host system locally at the spectator system .
Arrangement in stock preparation, wherein a machine tank containing stock is linked to a container , and the container is linked to a forming unit , and the container and the forming unit are parts of a forming section of a fiber molding machine, characterized in that between the stock preparation and the forming section there is a water cutoff .
A method at a network element in a wireless communication system, comprising transmitting, to a user equipment , a downlink message including a first control channel element for deriving physical uplink control channel resources , the first control channel element being associated to at least one of a first orthogonal resource and a second orthogonal resource ; receiving a transmission from the user equipment; and characterized in that the method further comprises: separating the transmission into a first modulated message and a second modulated message using the first orthogonal resource and the second orthogonal resource ; the method further comprising assigning to the user equipment an offset from the first control channel element to a second control channel element both of the downlink message, wherein the downlink message is a physical downlink control channel message, and the selection of the second control channel element is limited to those control channel elements of the downlink message corresponding to a physical uplink control channel resource transmitted in the same physical uplink control channel resource block as the physical uplink control channel resource corresponding to the first control channel element. transmitting, to a user equipment , a downlink message including a first control channel element for deriving physical uplink control channel resources , the first control channel element being associated to at least one of a first orthogonal resource and a second orthogonal resource ; receiving a transmission from the user equipment; and characterized in that the method further comprises: separating the transmission into a first modulated message and a second modulated message using the first orthogonal resource and the second orthogonal resource ; the method further comprising assigning to the user equipment an offset from the first control channel element to a second control channel element both of the downlink message, wherein the downlink message is a physical downlink control channel message, and the selection of the second control channel element is limited to those control channel elements of the downlink message corresponding to a physical uplink control channel resource transmitted in the same physical uplink control channel resource block as the physical uplink control channel resource corresponding to the first control channel element. separating the transmission into a first modulated message and a second modulated message using the first orthogonal resource and the second orthogonal resource ; the method further comprising assigning to the user equipment an offset from the first control channel element to a second control channel element both of the downlink message, wherein the downlink message is a physical downlink control channel message, and the selection of the second control channel element is limited to those control channel elements of the downlink message corresponding to a physical uplink control channel resource transmitted in the same physical uplink control channel resource block as the physical uplink control channel resource corresponding to the first control channel element.
A computer-implemented method of booting a machine in a secure fashion in a potentially unsecure environment, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: beginning a boot process at a target machine, wherein the target machine begins the boot process based on a template; determining at the target machine that provisioning data is needed to continue booting; the target machine contacting a secure infrastructure to obtain the provisioning data; the target machine providing an identity claim that can be verified by the secure infrastructure; as a result of the secure infrastructure verifying the identity claim, the target machine receiving a request from the secure infrastructure to establish a key sealed to the target machine; the target machine providing the established key to the secure infrastructure; the target machine receiving the provisioning data from the secure infrastructure, wherein the provisioning data is encrypted to the established key; and the target machine decrypting the encrypted provisioning data, and using the provisioning data to finish booting, wherein the provisioning data is used to verify that the template is acceptable for use in booting the target machine. beginning a boot process at a target machine, wherein the target machine begins the boot process based on a template; determining at the target machine that provisioning data is needed to continue booting; the target machine contacting a secure infrastructure to obtain the provisioning data; the target machine providing an identity claim that can be verified by the secure infrastructure; as a result of the secure infrastructure verifying the identity claim, the target machine receiving a request from the secure infrastructure to establish a key sealed to the target machine; the target machine providing the established key to the secure infrastructure; the target machine receiving the provisioning data from the secure infrastructure, wherein the provisioning data is encrypted to the established key; and the target machine decrypting the encrypted provisioning data, and using the provisioning data to finish booting, wherein the provisioning data is used to verify that the template is acceptable for use in booting the target machine.
A landing jamb for an elevator, comprising: a jamb main body provided on both sides of a landing doorway and to an upper part of the landing doorway ; a design plate superposed to a surface of the jamb main body , and a plurality of sets of fixtures configured to fix the design plate to the jamb main body , wherein each of the fixtures of at least one set of the plurality of sets of fixtures includes: a stud bolt , which is fixed to the design plate , and passes through the jamb main body ; a main nut screwed over the stud bolt ; and an intermediate member through which the stud bolt is caused to pass, and which is interposed between the main nut and the jamb main body , and characterized in that the design plate is a flat plate having a plate thickness larger than a plate thickness of the jamb main body , and a melting point of a material used to form the intermediate member is lower than a melting point of a material used to form the stud bolt and a melting point of a material used to form the main nut . a jamb main body provided on both sides of a landing doorway and to an upper part of the landing doorway ; a design plate superposed to a surface of the jamb main body , and a plurality of sets of fixtures configured to fix the design plate to the jamb main body , wherein each of the fixtures of at least one set of the plurality of sets of fixtures includes: a stud bolt , which is fixed to the design plate , and passes through the jamb main body ; a main nut screwed over the stud bolt ; and an intermediate member through which the stud bolt is caused to pass, and which is interposed between the main nut and the jamb main body , and characterized in that the design plate is a flat plate having a plate thickness larger than a plate thickness of the jamb main body , and a melting point of a material used to form the intermediate member is lower than a melting point of a material used to form the stud bolt and a melting point of a material used to form the main nut . a stud bolt , which is fixed to the design plate , and passes through the jamb main body ; a main nut screwed over the stud bolt ; and an intermediate member through which the stud bolt is caused to pass, and which is interposed between the main nut and the jamb main body , and characterized in that the design plate is a flat plate having a plate thickness larger than a plate thickness of the jamb main body , and a melting point of a material used to form the intermediate member is lower than a melting point of a material used to form the stud bolt and a melting point of a material used to form the main nut .