mhurhangee/patent-ind-claim-en huggingface dataset:
A container apparatus comprising: a mounting means ; a lid connected to the mounting means by a connecting means ; and a frame slideably connected to the mounting means , the frame adapted to support a waste container , wherein the frame is slideable between a first frame position, wherein an open end of the waste container is entirely covered by the lid , and a second frame position which is offset from the first position in a first direction (D), the connecting means arranged to allow the lid to move between a first lid position, wherein the lid covers the open end of the waste container when the frame is in the first frame position, and a second lid position which is above the first lid position and is offset from the first lid position in a second direction opposite to the first direction (D), wherein there is no contact between the lid and the waste container or the frame when the lid is in the second position, characterised in that the apparatus further comprises lid moving means configured to move the lid to the second lid position when the frame is moved from the first frame position to the second frame position. a mounting means ; a lid connected to the mounting means by a connecting means ; and a frame slideably connected to the mounting means , the frame adapted to support a waste container , wherein the frame is slideable between a first frame position, wherein an open end of the waste container is entirely covered by the lid , and a second frame position which is offset from the first position in a first direction (D), the connecting means arranged to allow the lid to move between a first lid position, wherein the lid covers the open end of the waste container when the frame is in the first frame position, and a second lid position which is above the first lid position and is offset from the first lid position in a second direction opposite to the first direction (D), wherein there is no contact between the lid and the waste container or the frame when the lid is in the second position,
A system for recovering waste heat from an internal combustion engine using a Rankine cycle (RC) system , comprising: a heat exchanger thermally coupled to a heat source associated with the internal combustion engine and adapted to transfer heat from the heat source to working fluid of the RC system ; an energy conversion device fluidly coupled to the heat exchanger and adapted to receive the working fluid having the transferred heat and convert the energy of the transferred heat; a condenser fluidly coupled to the energy conversion device and adapted to receive the working fluid from which the energy was converted; a pump positioned in a flow path of the working fluid between the condenser and the heat exchanger , said pump adapted to move the working fluid through the RC system ; a bypass valve having an inlet fluidly connected between an outlet of the heat exchanger and an inlet of the energy conversion device , and an outlet fluidly connected to an inlet of the condenser ; at least one sensor in the flow path of the working fluid between the condenser and the pump and adapted to sense pressure and temperature characteristics of the working fluid and to generate a signal indicative of the temperature and pressure of the working fluid, the at least one sensor being configured to sense a transient condition; and a controller adapted to regulate the condenser pressure in the RC system via controlling the bypass valve based on the generated signal and adapted to control an extent to which the bypass valve is opened based on a magnitude of the sensed transient condition. a heat exchanger thermally coupled to a heat source associated with the internal combustion engine and adapted to transfer heat from the heat source to working fluid of the RC system ; an energy conversion device fluidly coupled to the heat exchanger and adapted to receive the working fluid having the transferred heat and convert the energy of the transferred heat; a condenser fluidly coupled to the energy conversion device and adapted to receive the working fluid from which the energy was converted; a pump positioned in a flow path of the working fluid between the condenser and the heat exchanger , said pump adapted to move the working fluid through the RC system ; a bypass valve having an inlet fluidly connected between an outlet of the heat exchanger and an inlet of the energy conversion device , and an outlet fluidly connected to an inlet of the condenser ; at least one sensor in the flow path of the working fluid between the condenser and the pump and adapted to sense pressure and temperature characteristics of the working fluid and to generate a signal indicative of the temperature and pressure of the working fluid, the at least one sensor being configured to sense a transient condition; and a controller adapted to regulate the condenser pressure in the RC system via controlling the bypass valve based on the generated signal and adapted to control an extent to which the bypass valve is opened based on a magnitude of the sensed transient condition.
An inhalation device for delivering medication to a user, said inhalation device comprising: a mouthpiece , a dosing chamber , and a flow channel connecting the mouthpiece to the dosing chamber, wherein the dosing chamber is configured to deliver the medication to the user via the mouthpiece; an electronically driven vibratory element ; a sensor system configured to generate a pressure signal indicative of air flow through the flow channel; and a controller configured to receive the pressure signal from the sensor system, activate and deactivate the vibratory element, perform an inhalation detection procedure to determine a plurality of successful inhalations, and generate a trigger signal to control timing of operation of the electronically driven vibratory element to release medication into the dosing chamber based on the plurality of inhalations, wherein the inhalation device comprises a main body and a replaceable medication cartridge , the main body including the sensor system and the vibratory element, and the medication cartridge including the mouthpiece, the medication, the dosing chamber, and the flow channel, and wherein the medication cartridge comprises an intake/exhaust port configured to allow air to flow into the intake/exhaust port when a user inhales through the mouthpiece , and air to flow out of the intake/exhaust port when a user exhales through the mouthpiece. a mouthpiece , a dosing chamber , and a flow channel connecting the mouthpiece to the dosing chamber, wherein the dosing chamber is configured to deliver the medication to the user via the mouthpiece; an electronically driven vibratory element ; a sensor system configured to generate a pressure signal indicative of air flow through the flow channel; and a controller configured to receive the pressure signal from the sensor system, activate and deactivate the vibratory element, perform an inhalation detection procedure to determine a plurality of successful inhalations, and generate a trigger signal to control timing of operation of the electronically driven vibratory element to release medication into the dosing chamber based on the plurality of inhalations, wherein the inhalation device comprises a main body and a replaceable medication cartridge , the main body including the sensor system and the vibratory element, and the medication cartridge including the mouthpiece, the medication, the dosing chamber, and the flow channel, and wherein the medication cartridge comprises an intake/exhaust port configured to allow air to flow into the intake/exhaust port when a user inhales through the mouthpiece , and air to flow out of the intake/exhaust port when a user exhales through the mouthpiece.
A battery module comprising: a plurality of battery cells connected in series, each battery cell having a cathode , an anode , and a separator separating the cathode and the anode, and a bipolar current collector ; a plurality of polymer frames , each having a window to receive part of the one of the plurality of battery cells; a housing connected to the polymer frames ; and two of the plurality of polymer frames and the housing defining a compartment, the compartment being filled with an electrolyte. a plurality of battery cells connected in series, each battery cell having a cathode , an anode , and a separator separating the cathode and the anode, and a bipolar current collector ; a plurality of polymer frames , each having a window to receive part of the one of the plurality of battery cells; a housing connected to the polymer frames ; and two of the plurality of polymer frames and the housing defining a compartment, the compartment being filled with an electrolyte.
A guiding system for guiding an autonomous movable object , wherein the guiding system comprises a time-of-flight imaging system comprising a first light source , wherein the first light source is arranged to illuminate a first field of detection , wherein the imaging system comprises at least one light sensor , wherein the light sensor is arranged to detect reflected light , wherein the detected reflected light comprises first reflected light and second reflected light, wherein the first reflected light comprises light emitted by the first light source reflected at the first field of detection , wherein the second reflected light originates from a second field of detection illuminated by a second light source, wherein the second light source is independent from the first light source , wherein the second light source is a light source coupled to a different movable object , wherein the imaging system is arranged to differentiate between the first reflected light and the second reflected light, wherein the imaging system is arranged to determine a depth map of the first field of detection based on the detected first reflected light, and wherein the imaging system is arranged to generate a feedback signal for triggering a feedback action based on the detected second reflected light; characterized in that the guiding system further comprises a motion control module , wherein the motion control module is arranged to receive the feedback signal, and wherein the motion control module is arranged to modify a motion of the autonomous movable object based on the feedback signal. a time-of-flight imaging system comprising a first light source , wherein the first light source is arranged to illuminate a first field of detection , wherein the imaging system comprises at least one light sensor , wherein the light sensor is arranged to detect reflected light , wherein the detected reflected light comprises first reflected light and second reflected light, wherein the first reflected light comprises light emitted by the first light source reflected at the first field of detection , wherein the second reflected light originates from a second field of detection illuminated by a second light source, wherein the second light source is independent from the first light source , wherein the second light source is a light source coupled to a different movable object , wherein the imaging system is arranged to differentiate between the first reflected light and the second reflected light, wherein the imaging system is arranged to determine a depth map of the first field of detection based on the detected first reflected light, and wherein the imaging system is arranged to generate a feedback signal for triggering a feedback action based on the detected second reflected light; characterized in that the guiding system further comprises a motion control module , wherein the motion control module is arranged to receive the feedback signal, and wherein the motion control module is arranged to modify a motion of the autonomous movable object based on the feedback signal.
A method comprising: performing, by a communication device, identifying one of a plurality of orthogonal superframes, the identified superframe including beacon slots and contention access period, CAP, slots, the beacon slots following a sequence of two or more frequency subbands and the CAP slots following the same sequence of two or more frequency subbands, the sequence of two or more frequency subbands being distinct from other sequences of two or more frequency subbands followed by other beacon slots and CAP slots of other superframes of the plurality of orthogonal superframes; and communicating with another device using the identified superframe. performing, by a communication device, identifying one of a plurality of orthogonal superframes, the identified superframe including beacon slots and contention access period, CAP, slots, the beacon slots following a sequence of two or more frequency subbands and the CAP slots following the same sequence of two or more frequency subbands, the sequence of two or more frequency subbands being distinct from other sequences of two or more frequency subbands followed by other beacon slots and CAP slots of other superframes of the plurality of orthogonal superframes; and communicating with another device using the identified superframe.
Device with at least one illuminatable region and a control device, comprising a panel , a circuitboard , at least one lighting means and at least one reflector element, wherein - the panel has at least one illuminatable region , - the circuitboard has at least one lighting means, which is arranged adjacent to an opening in the circuitboard , - the panel is so arranged with respect to the circuitboard that the at least one illuminatable region is arranged over an opening in the circuitboard , - the at least one lighting means is arranged at the circuitboard at the side remote from the panel , - a reflector element is arranged in such a way that the light, which is output by the at least one lighting means, is reflected towards the opening and the illuminatable region lying thereover, - the control device comprises at least one sensor element integrated in the circuitboard , - the device comprises a reflector plate with a plurality of reflector elements, which are formed by recesses in the reflector plate , and - the shape and size of at least two reflector elements differ. - the panel has at least one illuminatable region , - the circuitboard has at least one lighting means, which is arranged adjacent to an opening in the circuitboard , - the panel is so arranged with respect to the circuitboard that the at least one illuminatable region is arranged over an opening in the circuitboard , - the at least one lighting means is arranged at the circuitboard at the side remote from the panel , - a reflector element is arranged in such a way that the light, which is output by the at least one lighting means, is reflected towards the opening and the illuminatable region lying thereover, - the control device comprises at least one sensor element integrated in the circuitboard , - the device comprises a reflector plate with a plurality of reflector elements, which are formed by recesses in the reflector plate , and - the shape and size of at least two reflector elements differ.
An embossing tool for deforming smooth and embossed films made of metal or films made of laminates of metal and plastics, wherein the embossing tool is formed to be integratable into a stamping and embossing machine and comprises a matrix with an embossing region and a patrix to emboss a film which is guidable or placeable between the matrix and patrix , wherein an embossing structure is applied to the bottom side of the matrix by elevations , characterized - in that , above the matrix , a first compensating element is arranged and an upper receiving plate is arranged above that, - in that , in the receiving plate , a recess is formed at the bottom side thereof, in which recess the compensating element is inserted, wherein the compensating element projects beyond the recess by a few tenths of a millimeter and lies at the back side of the matrix directly behind the elevations for the embossing, and - in that , in a mirror-image manner to the matrix at the patrix on the surface of which an elevation with the embossing pattern is formed, a second, elastically deformable compensating element is arranged in a recess in a lower receiving plate and projects beyond the receiving plate . - in that , above the matrix , a first compensating element is arranged and an upper receiving plate is arranged above that, - in that , in the receiving plate , a recess is formed at the bottom side thereof, in which recess the compensating element is inserted, wherein the compensating element projects beyond the recess by a few tenths of a millimeter and lies at the back side of the matrix directly behind the elevations for the embossing, and - in that , in a mirror-image manner to the matrix at the patrix on the surface of which an elevation with the embossing pattern is formed, a second, elastically deformable compensating element is arranged in a recess in a lower receiving plate and projects beyond the receiving plate .
A thermoelectric conversion element, comprising: a first electrode ; a second electrode ; and a thermoelectric conversion layer , a first intermediate layer ; and a second intermediate layer ; wherein the first intermediate layer is provided between the thermoelectric conversion layer and the first electrode ; the first intermediate layer is in contact with the thermoelectric conversion layer ; the first electrode is in contact with the first intermediate layer ; the second intermediate layer is provided between the thermoelectric conversion layer and the second electrode ; the second intermediate layer is in contact with the thermoelectric conversion layer ; the second electrode is in contact with the second intermediate layer ; the first electrode and the second electrode are composed of a CuZn alloy; the thermoelectric conversion layer is composed of a thermoelectric conversion material containing Mg; the thermoelectric conversion material contains at least one kind of element selected from the group consisting of Sb and Bi; the thermoelectric conversion material contains at least one kind of element selected from the group consisting of Se and Te; the thermoelectric conversion material has a La 2 O 3 -type crystalline structure; a composition of the first intermediate layer is different from both a composition of the first electrode and a composition of the thermoelectric conversion layer ; and a composition of the second intermediate layer is different from both a composition of the second electrode and a composition of the thermoelectric conversion layer . a first electrode ; a second electrode ; and a thermoelectric conversion layer , a first intermediate layer ; and a second intermediate layer ; wherein the first intermediate layer is provided between the thermoelectric conversion layer and the first electrode ; the first intermediate layer is in contact with the thermoelectric conversion layer ; the first electrode is in contact with the first intermediate layer ; the second intermediate layer is provided between the thermoelectric conversion layer and the second electrode ; the second intermediate layer is in contact with the thermoelectric conversion layer ; the second electrode is in contact with the second intermediate layer ; the first electrode and the second electrode are composed of a CuZn alloy; the thermoelectric conversion layer is composed of a thermoelectric conversion material containing Mg; the thermoelectric conversion material contains at least one kind of element selected from the group consisting of Sb and Bi; the thermoelectric conversion material contains at least one kind of element selected from the group consisting of Se and Te; the thermoelectric conversion material has a La 2 O 3 -type crystalline structure; a composition of the first intermediate layer is different from both a composition of the first electrode and a composition of the thermoelectric conversion layer ; and a composition of the second intermediate layer is different from both a composition of the second electrode and a composition of the thermoelectric conversion layer .
A continuous bag-making and packaging apparatus in which sealing is performed on a film at a predetermined position to make a bag while the film is continuously conveyed, the continuous bag-making and packaging apparatus comprising: a film-conveying unit configured to change a feeding speed of the film; a display screen that displays a timing of an action of the bag-making; a printing unit configured to print on the film conveyed; a bag information acquisition unit configured to acquire information of a bag to be made; and characterized by a print timing presentation unit that is a computation unit configured to compute a print timing suitable for printing based on the information of the bag, the print timing presentation unit further being configured to present information pertaining to the print timing by displaying the print timing through the display screen. a film-conveying unit configured to change a feeding speed of the film; a display screen that displays a timing of an action of the bag-making; a printing unit configured to print on the film conveyed; a bag information acquisition unit configured to acquire information of a bag to be made; and characterized by a print timing presentation unit that is a computation unit configured to compute a print timing suitable for printing based on the information of the bag, the print timing presentation unit further being configured to present information pertaining to the print timing by displaying the print timing through the display screen.
A method comprising: selectively converting 5-hydroxymethylcytosine (5-hmC) to 5-formylcytosine (5-fC) in a portion of a polynucleotide by contacting said polynucleotide with a metal (VI) oxo complex, wherein said metal (VI) oxo complex comprises manganate (Mn(VI)O 4 2- ) or ruthenate (Ru(VI)O 4 2- ).
A heliostat comprising a supporting structure , a mirror surface and a mount for connecting the mirror surface to the supporting structure , wherein the supporting structure comprises at least one profile , wherein the mount comprises - -a base , which is fixed to the rear side of the mirror surface , the base having a cutout and a recess which passes through the cutout , the recess serving to receive a connecting element , - -a securing pin , which can be inserted into the cutout of the base , the securing pin having a groove , which interacts with the connecting element , wherein the connecting element has a U-shaped cutout and two tongues , which can be positively connected to the groove of the securing pin , characterised in that the recess runs in the radial direction, in that the at least one profile of the supporting structure has at least one opening for receiving the securing pin of the mount , and in that a diameter of the at least one opening is at least twice as large, preferably three or four times as large, as a diameter of the securing pin . - -a base , which is fixed to the rear side of the mirror surface , the base having a cutout and a recess which passes through the cutout , the recess serving to receive a connecting element , - -a securing pin , which can be inserted into the cutout of the base , the securing pin having a groove , which interacts with the connecting element , wherein the connecting element has a U-shaped cutout and two tongues , which can be positively connected to the groove of the securing pin ,