mhurhangee/ep-ind-claims huggingface dataset:
A laser radar device comprising: an optical transmission unit for transmitting a pulse-modulated optical signal having a high time period and a low time period, wherein a level of continuous wave light is output in the low time period as a low-level component of a pulse; a circulator for transmitting the optical signal as transmission light and acquiring reflection light from a target in an atmosphere as reception light; an optical partial reflecting unit for reflecting the optical signal, this reflected optical signal being an input to the circulator, the optical partial reflecting unit being provided on a path through which the transmission light is transmitted from the circulator to the atmosphere; and a detection unit for performing coherent detection on the reception light using, as local light, a signal in a low time period of the optical signal reflected by the optical partial reflecting unit, wherein the detection unit comprises: a light receiving element for performing coherent detection on the local light and the reception light and converting a result of the coherent detection to a current signal; a current-voltage converter for converting the current signal from the light receiving element into a voltage signal; and a signal processor for performing frequency analysis on the voltage signal from the current-voltage converter, wherein a reflectance in the optical partial reflecting unit is controlled by the signal processor. an optical transmission unit for transmitting a pulse-modulated optical signal having a high time period and a low time period, wherein a level of continuous wave light is output in the low time period as a low-level component of a pulse; a circulator for transmitting the optical signal as transmission light and acquiring reflection light from a target in an atmosphere as reception light; an optical partial reflecting unit for reflecting the optical signal, this reflected optical signal being an input to the circulator, the optical partial reflecting unit being provided on a path through which the transmission light is transmitted from the circulator to the atmosphere; and a detection unit for performing coherent detection on the reception light using, as local light, a signal in a low time period of the optical signal reflected by the optical partial reflecting unit, wherein the detection unit comprises: a light receiving element for performing coherent detection on the local light and the reception light and converting a result of the coherent detection to a current signal; a current-voltage converter for converting the current signal from the light receiving element into a voltage signal; and a signal processor for performing frequency analysis on the voltage signal from the current-voltage converter, a light receiving element for performing coherent detection on the local light and the reception light and converting a result of the coherent detection to a current signal; a current-voltage converter for converting the current signal from the light receiving element into a voltage signal; and a signal processor for performing frequency analysis on the voltage signal from the current-voltage converter,
A microcapsule type curable resin composition comprising: a microcapsule encapsulating only a compound with 3 or 4 thiol groups (a); a substance (b) curable by reacting with the one or more compounds with 3 or 4 thiol groups; and a binder (c) which can adhere the microcapsule to an adherend, a reaction catalyst (d) for the compounds (a) and the substance (b); a filler (e) selected from a group consisting of silica and nylon resin powder, wherein the substance (b) is encapsulated in a microcapsule separately from the microcapsule encapsulating only the compound with 3 or 4 thiol groups (a), wherein content of the microcapsules encapsulating said compounds with 3 or 4 thiol groups (a) is 20 to 80 parts by mass per 100 parts by mass of the microcapsule encapsulating the substance (b), and wherein the content of the binder (c) is 10 to 60 parts by mass per 100 parts by mass of the total mass of the microcapsule encapsulating only the compound with 3 or 4 thiol groups (a) and the microcapsule encapsulating the component (b). a microcapsule encapsulating only a compound with 3 or 4 thiol groups (a); a substance (b) curable by reacting with the one or more compounds with 3 or 4 thiol groups; and a binder (c) which can adhere the microcapsule to an adherend, a reaction catalyst (d) for the compounds (a) and the substance (b); a filler (e) selected from a group consisting of silica and nylon resin powder, wherein the substance (b) is encapsulated in a microcapsule separately from the microcapsule encapsulating only the compound with 3 or 4 thiol groups (a),
Strain wave gear mechanism, characterized in that the strain wave gear mechanism has four externally toothed gearwheels (1, 2, 4, 5), of which a first externally toothed gear wheel and a second externally toothed gear wheel are in meshing engagement with a first radially flexible internally toothed sleeve, and of which a third externally toothed gearwheel and a fourth externally toothed gearwheel are in meshing engagement with a second radially flexible internally toothed sleeve, wherein the first radially flexible internally toothed sleeve has a coupling portion which coaxially surrounds the second radially flexible internally toothed sleeve.
A light-emitting device, comprising: - a semiconductor body, having a first conductivity type, with a front side and a back side; - a porous-silicon region, extending in said semiconductor body at the front side; and - a cathode region, having a second conductivity type, having a top side facing the front side, a bottom side opposite to the top side, and lateral portions that extend between the top side and the bottom side, wherein the lateral portions of the cathode region are in direct electrical contact with the porous-silicon region, characterized by further comprising a barrier region of electrically insulating material, extending in direct contact with the cathode region at the bottom side so that, in use, an electric current flows in the semiconductor body exclusively through the lateral portions of the cathode region. - a semiconductor body, having a first conductivity type, with a front side and a back side; - a porous-silicon region, extending in said semiconductor body at the front side; and - a cathode region, having a second conductivity type, having a top side facing the front side, a bottom side opposite to the top side, and lateral portions that extend between the top side and the bottom side, wherein the lateral portions of the cathode region are in direct electrical contact with the porous-silicon region,
A computer-implemented method comprising: receiving, from at least one input device (202A-N), at least one data processing preference of the at least one input device (202A-N), verification data of the at least one input device (202A-N), and verification data of an output device (302A-N); creating a trusted application comprising an isolated, trusted environment configured to implement data processing defined by the at least one data processing preference, wherein the creating comprises linking the isolated, trusted environment with the verification data of the at least one input device (202A-N) and the verification data of the output device (302A-N); providing, to the at least one input device (202A-N), trust data of the isolated, trusted environment; and providing, to an application provider, the trusted application comprising the isolated, trusted environment to implement the data processing defined by the at least one data processing preference, wherein the data processing is implemented in response to mutual verification between the isolated, trusted environment and the at least one input device (202A-N), the mutual verification based on the trust data of the isolated, trusted environment and the verification data of the at least one input device (202A-N). receiving, from at least one input device (202A-N), at least one data processing preference of the at least one input device (202A-N), verification data of the at least one input device (202A-N), and verification data of an output device (302A-N); creating a trusted application comprising an isolated, trusted environment configured to implement data processing defined by the at least one data processing preference, wherein the creating comprises linking the isolated, trusted environment with the verification data of the at least one input device (202A-N) and the verification data of the output device (302A-N); providing, to the at least one input device (202A-N), trust data of the isolated, trusted environment; and providing, to an application provider, the trusted application comprising the isolated, trusted environment to implement the data processing defined by the at least one data processing preference, wherein the data processing is implemented in response to mutual verification between the isolated, trusted environment and the at least one input device (202A-N), the mutual verification based on the trust data of the isolated, trusted environment and the verification data of the at least one input device (202A-N).
Method for manufacturing bags for infusion materials, in which a revolver device consists of at least two revolvers (12, 20) driven rotatably independently of one another, namely of a central revolver, which is moved cyclically past a number of work stations (4, 5, 6, 7, 8, 9, 10) arranged distributed on the circumference, and a label revolver driven rotatably likewise cyclically which is suitable for manufacturing the labels (16, 17), wherein first of all the label (16, 17) is supplied to the central revolver and following thereafter the bag and in that in the central revolver, the bag is supplied to the label (16, 17), characterised in that the labels (16, 17) remain on a label strand until completion of feeding into and fixing in the label revolver on the label strand and still connected to the label strand are transported until they are fixed in the label revolver.
A hardware acceleration device, comprising: a switch communicatively linked to a host central processing unit, CPU; an adapter circuit coupled to the switch via a control bus, wherein the control bus is configured to convey addresses of descriptors from the host CPU to the adapter circuit, and wherein the host CPU initiates register writes to write the addresses of the descriptors over the control bus to registers within the adapter circuit; a random-access memory coupled to the switch through a data bus, wherein the random-access memory is configured to store descriptors received from the host CPU via the data bus; a compute circuit coupled to the adapter circuit and configured to perform operations specified by the descriptors; and wherein the adapter circuit is configured to retrieve the descriptors from the random-access memory via the data bus using the addresses received over the control bus, provide arguments from the descriptors to the compute circuit, and provide control signals to the compute circuit to initiate the operations using the arguments. a switch communicatively linked to a host central processing unit, CPU; an adapter circuit coupled to the switch via a control bus, wherein the control bus is configured to convey addresses of descriptors from the host CPU to the adapter circuit, and wherein the host CPU initiates register writes to write the addresses of the descriptors over the control bus to registers within the adapter circuit; a random-access memory coupled to the switch through a data bus, wherein the random-access memory is configured to store descriptors received from the host CPU via the data bus; a compute circuit coupled to the adapter circuit and configured to perform operations specified by the descriptors; and wherein the adapter circuit is configured to retrieve the descriptors from the random-access memory via the data bus using the addresses received over the control bus, provide arguments from the descriptors to the compute circuit, and provide control signals to the compute circuit to initiate the operations using the arguments.
Hot beverage maker comprising a flow line system having - a water source; - a brewing unit, the brewing unit a brewing chamber for receiving brewing material to be brewed and an inlet line for introducing brewing water into the brewing chamber, - a heater for heating the water supplied to the brewing chamber - a pump designed to convey the water from the source to the brewing chamber, - a controller for activating and deactivating said actuators for preparing a selected beverage, - an operating and display device having a touch-sensitive display on which a selection region of a parameter is displayed and a desired setting of the parameter can take place by means of a touch or touch gesture within the selection region, the controller being connected to the operating and display device in order to prepare the beverage based on the selection, the controller being designed to control the pump, the heating body and the valve arrangement so as to prepare the beverage in accordance with the set sensory properties, the operating and display device being designed to output a spin network diagram (52, 53) for displaying sensory properties on the display for setting the parameters, and to detect a touch or gesture within the border of the spin network diagram (52, 53) as a selection for the sensory property, characterized in that the operating and display device is designed to display, with the spin network diagram (52, 53), the limits to be achieved with respect to predetermined taste parameters for a type of bean (Bean A, Bean B) to be used, within which the selection of the taste parameters can take place. - a water source; - a brewing unit, the brewing unit a brewing chamber for receiving brewing material to be brewed and an inlet line for introducing brewing water into the brewing chamber, - a heater for heating the water supplied to the brewing chamber - a pump designed to convey the water from the source to the brewing chamber, - a controller for activating and deactivating said actuators for preparing a selected beverage, - an operating and display device having a touch-sensitive display on which a selection region of a parameter is displayed and a desired setting of the parameter can take place by means of a touch or touch gesture within the selection region, the controller being connected to the operating and display device in order to prepare the beverage based on the selection, the controller being designed to control the pump, the heating body and the valve arrangement so as to prepare the beverage in accordance with the set sensory properties,
A gyratory crusher main shaft sleeve for friction fitting over an uppermost tapered end of a crusher main shaft, the sleeve comprising: an elongate axial wall from an upper end to a lower end extending and being centred around a centre axis and having an external facing surface and an internal facing surface aligned transverse to taper inwardly towards the axis, and wherein the tapering is defined by a sleeve tapering angle (γ) between the internal facing surface and an imaginary axis being parallel with the axis; and wherein the internal surface of the sleeve has a section in axial direction with an upper end and a lower end, which sleeve section from the upper end to the lower end has a section tapering angle (α) between the internal surface and the imaginary axis being different compared to the sleeve angle (γ) defining the tapering of the sleeve from the sleeve upper end to the section upper end, characterized in that, the section angle (α) of the sleeve section is smaller than the sleeve angle (γ) of the sleeve. an elongate axial wall from an upper end to a lower end extending and being centred around a centre axis and having an external facing surface and an internal facing surface aligned transverse to taper inwardly towards the axis, and wherein the tapering is defined by a sleeve tapering angle (γ) between the internal facing surface and an imaginary axis being parallel with the axis; and wherein the internal surface of the sleeve has a section in axial direction with an upper end and a lower end, which sleeve section from the upper end to the lower end has a section tapering angle (α) between the internal surface and the imaginary axis being different compared to the sleeve angle (γ) defining the tapering of the sleeve from the sleeve upper end to the section upper end, characterized in that, the section angle (α) of the sleeve section is smaller than the sleeve angle (γ) of the sleeve.
An automatically actuated nasal droplet delivery device for delivering a fluid as an ejected stream of droplets to the nasal passageways and sinus cavities of a subject, the device comprising: a housing; a nosepiece positioned at an airflow exit of the device; an air inlet flow element positioned in the airflow at an airflow entrance of the device; a reservoir disposed within or in fluid communication with the housing for receiving a volume of fluid; an electronically actuated ejector mechanism in fluid communication with the reservoir and configured to generate the ejected stream of droplets; at least one differential pressure sensor positioned within the housing, the at least one differential pressure sensor configured to activate the ejector mechanism upon sensing a pre-determined pressure change within the nosepiece to thereby generate the ejected stream of droplets; the ejector mechanism comprising a piezoelectric actuator and an aperture plate, the aperture plate having a plurality of openings formed through its thickness and the piezoelectric actuator operable to oscillate the aperture plate at a frequency to thereby generate the ejected stream of droplets; wherein the housing, air inlet flow element, and nosepiece are configured to facilitate non-turbulent airflow across an exit side of the aperture plate and to provide sufficient non-turbulent airflow through the housing during use; and wherein the ejector mechanism is configured to generate the ejected stream of droplets wherein at least about 50% of the droplets have an average ejected droplet diameter of greater than about 10 microns. a housing; a nosepiece positioned at an airflow exit of the device; an air inlet flow element positioned in the airflow at an airflow entrance of the device; a reservoir disposed within or in fluid communication with the housing for receiving a volume of fluid; an electronically actuated ejector mechanism in fluid communication with the reservoir and configured to generate the ejected stream of droplets; at least one differential pressure sensor positioned within the housing, the at least one differential pressure sensor configured to activate the ejector mechanism upon sensing a pre-determined pressure change within the nosepiece to thereby generate the ejected stream of droplets; the ejector mechanism comprising a piezoelectric actuator and an aperture plate, the aperture plate having a plurality of openings formed through its thickness and the piezoelectric actuator operable to oscillate the aperture plate at a frequency to thereby generate the ejected stream of droplets; wherein the housing, air inlet flow element, and nosepiece are configured to facilitate non-turbulent airflow across an exit side of the aperture plate and to provide sufficient non-turbulent airflow through the housing during use; and wherein the ejector mechanism is configured to generate the ejected stream of droplets wherein at least about 50% of the droplets have an average ejected droplet diameter of greater than about 10 microns.
A circuit for providing an output voltage on an output terminal, comprising: a current source configured to supply or sink a reference current; and a current mirror having a bias branch and a main branch, wherein the bias branch is connected with the current source to provide the reference current to the output terminal, wherein the main branch includes a source follower to provide the output voltage at the output terminal, wherein the current source is provided with a first power supply voltage and the main branch of the current mirror is provided with a second power supply voltage, wherein the first power supply voltage has a higher voltage than the second power supply voltage. a current source configured to supply or sink a reference current; and a current mirror having a bias branch and a main branch, wherein the bias branch is connected with the current source to provide the reference current to the output terminal, wherein the main branch includes a source follower to provide the output voltage at the output terminal, wherein the current source is provided with a first power supply voltage and the main branch of the current mirror is provided with a second power supply voltage, wherein the first power supply voltage has a higher voltage than the second power supply voltage.
A method of a first device configured to discontinuously monitor one or more sidelink control channels, the method comprising: performing a first sidelink transmission to a second device for requesting a CSI report from the second device; characterized by responsive to the first sidelink transmission, starting or restarting, by the first device, a timer; and monitoring a first sidelink control channel, from at least the second device, when the timer is running. performing a first sidelink transmission to a second device for requesting a CSI report from the second device; characterized by responsive to the first sidelink transmission, starting or restarting, by the first device, a timer; and monitoring a first sidelink control channel, from at least the second device, when the timer is running.
Safety device for belts, that comprises two bases, one lower one and one upper one with the upper one being removable from the lower one, and a rod integral with the lower base for being locked in the upper base wherein the device comprises: - a groove around the rod arranged such that when the rod is fixed to the upper base in the locking position, said groove is left insider the upper base, - an elastic retention means, with two facing strips (8, 9), included as part of the upper base, whereby, in the locking position said strips are fitted inside said groove, and - a key having two projections (19, 20) characterized in that said key is for being introduced into the upper base, and in that retention means is V-shaped such that when said key is introduced into said upper base said strips (8, 9) are pushed on their inner side, and the projections (19, 20) of the key separate said strips (8, 9) from the groove to release the the rod. - a groove around the rod arranged such that when the rod is fixed to the upper base in the locking position, said groove is left insider the upper base, - an elastic retention means, with two facing strips (8, 9), included as part of the upper base, whereby, in the locking position said strips are fitted inside said groove, and - a key having two projections (19, 20) characterized in that said key is for being introduced into the upper base, and in that retention means is V-shaped such that when said key is introduced into said upper base said strips (8, 9) are pushed on their inner side, and the projections (19, 20) of the key separate said strips (8, 9) from the groove to release the the rod.