mhurhangee/patent-ind-claim-en huggingface dataset:
A memory device (100; 400; 604) for a print cartridge comprising a compressed data structure (102; 402; 602) to construct a one-dimensional color transformation table for a printer, the color transformation table to provide transformations between various color spaces, the data structure comprising: quantized coefficients derived from a compression of a difference table (104; 404; 616) including a plurality of difference nodes in which each difference node represents a value that is to be combined with a corresponding node of a reference table, the quantized coefficients useable to produce a reconstructed difference table; a residue table (106; 408; 618) including a plurality of residue nodes in which each residue node is to be combined with a corresponding node of the combination of the reconstructed difference table and the reference table; and a residue bit assignment table useable to decode the residue table , wherein the residue bit assignment table is to indicate how many bits are assigned to each residue node of the residue table , wherein the quantized coefficients were generated via a discrete cosine transform, and are to be decompressed using an inverse discrete cosine transform process to thereby obtain the decompressed difference table. quantized coefficients derived from a compression of a difference table (104; 404; 616) including a plurality of difference nodes in which each difference node represents a value that is to be combined with a corresponding node of a reference table, the quantized coefficients useable to produce a reconstructed difference table; a residue table (106; 408; 618) including a plurality of residue nodes in which each residue node is to be combined with a corresponding node of the combination of the reconstructed difference table and the reference table; and a residue bit assignment table useable to decode the residue table ,
A system comprising a sensor unit configured for registering an expansion of a thorax of a subject, the system being configured for determining from data outputted by the sensor unit a local expansion of the thorax and an internal airflow distribution, IAD, of the lungs of the subject, wherein - the sensor unit sensor unit comprises an optical sensor unit, - the IAD of the lungs of the subject comprises an IAD to lower lung lobes and an IAD to upper lung lobes; and, the at least one optical sensor unit comprises a scanner and/or a camera, configured to capture optical images of the upper thorax and the lower thorax of the subject. - the sensor unit sensor unit comprises an optical sensor unit, - the IAD of the lungs of the subject comprises an IAD to lower lung lobes and an IAD to upper lung lobes; and,
A mobile communications device comprising: a near field communications, NFC, port; and a processor operable to: execute a trusted application within a trusted execution environment, TEE, for processing sensitive data; execute a first NFC driver within the TEE for providing a secure channel between the trusted application and the NFC port such that sensitive data being exchanged across the secure channel are inaccessible to other processes being executed by the processor ; execute the first NFC driver for controlling a non-secure channel to the NFC port, wherein the non-secure channel is provided through a second NFC driver within a kernel space which is separated from the TEE ; and control the first NFC driver to disable the second NFC driver for disabling the non-secure channel during the exchange of sensitive data between the trusted application and the NFC port through the secure channel. a near field communications, NFC, port; and a processor operable to: execute a trusted application within a trusted execution environment, TEE, for processing sensitive data; execute a first NFC driver within the TEE for providing a secure channel between the trusted application and the NFC port such that sensitive data being exchanged across the secure channel are inaccessible to other processes being executed by the processor ; execute the first NFC driver for controlling a non-secure channel to the NFC port, wherein the non-secure channel is provided through a second NFC driver within a kernel space which is separated from the TEE ; and control the first NFC driver to disable the second NFC driver for disabling the non-secure channel during the exchange of sensitive data between the trusted application and the NFC port through the secure channel. execute a trusted application within a trusted execution environment, TEE, for processing sensitive data; execute a first NFC driver within the TEE for providing a secure channel between the trusted application and the NFC port such that sensitive data being exchanged across the secure channel are inaccessible to other processes being executed by the processor ; execute the first NFC driver for controlling a non-secure channel to the NFC port, wherein the non-secure channel is provided through a second NFC driver within a kernel space which is separated from the TEE ; and control the first NFC driver to disable the second NFC driver for disabling the non-secure channel during the exchange of sensitive data between the trusted application and the NFC port through the secure channel.
Aircraft rear section comprising a fuselage rear section extending from the rear pressure bulkhead to the end of the fuselage and an empennage including at least a vertical tail plane comprising: - a continuous skin comprising an upper portion corresponding to the skin of the torsion box of the vertical tail plane , a lower portion corresponding to the skin of the fuselage rear section and a transition portion between the upper and lower portions ; - inner structural components joined to the upper and lower portions of the continuous skin , characterized in that the aircraft rear section further comprises a top panel for the portion of the fuselage rear section not covered by the continuous skin , the rear fuselage section comprising vertical frames and the vertical tail plane comprising a front and a rear spar, kink angles being formed between a front vertical frame and the front spar and a rear vertical frame and the rear spar , the top panel being placed at the kink location as a continuation of the upper skin of the fuselage forward of the vertical plane, and the continuous skin being formed by two lateral sides placed symmetrically with respect to the middle vertical plane of the aircraft, each side comprising the upper portion , the lower portion and the transition portion . - a continuous skin comprising an upper portion corresponding to the skin of the torsion box of the vertical tail plane , a lower portion corresponding to the skin of the fuselage rear section and a transition portion between the upper and lower portions ; - inner structural components joined to the upper and lower portions of the continuous skin ,
Protection method of a piece of equipment : - provide a protection device comprising: ∘ a frame provided with a plate , ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the piece of equipment onto the plate of the protection device , - detect a downward movement of the frame representative of tilting and emit a fall signal by means of the fall detection system , - inflate at least one casing designed to surround the piece of equipment on receipt of the fall signal by means of the inflation device , the at least one casing being fixed to the frame , protection method characterised in that detection of an upward movement of the frame preceding detection of said downward movement of the frame prevents receipt of a fall signal by the inflation device , detection of the upward movement of the frame and detection of said downward movement of the frame being separated by less than 10 seconds. - provide a protection device comprising: ∘ a frame provided with a plate , ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the piece of equipment onto the plate of the protection device , ∘ a frame provided with a plate , ∘ a fall detection system configured to detect a downward movement of the frame representative of tilting of the frame and to emit a fall signal, ∘ a fixing device configured to fix the piece of equipment onto the plate of the protection device , - detect a downward movement of the frame representative of tilting and emit a fall signal by means of the fall detection system , - inflate at least one casing designed to surround the piece of equipment on receipt of the fall signal by means of the inflation device , the at least one casing being fixed to the frame ,
Fastening device for fastening solar modules to a roof, wherein the fastening device comprises: at least a hook , wherein the hook has at least a fastening portion configured to fasten a mounting rail , wherein the hook comprises at least a first leg and at least a second leg , wherein the at least one first leg comprises at least a latching position and at least a base plate , which has at least a latching ledge to catch the hook , wherein the at least one latching ledge comprises at least a latching position , wherein the first leg and the second leg of the hook may be coupled with the base plate , wherein the latching position at the first leg may be latched with the latching position at the latching ledge , wherein the at least one hook and the at least one base plate are configured in such that the hook may be latched to the at least one base plate via a swivel movement of the at least one hook , characterized in that the at least one base plate comprises at least a receptacle for the free end of the second leg , wherein the receptacle comprises at least a mounting hook and a support ledge to support the second leg . at least a hook , wherein the hook has at least a fastening portion configured to fasten a mounting rail , wherein the hook comprises at least a first leg and at least a second leg , wherein the at least one first leg comprises at least a latching position and at least a base plate , which has at least a latching ledge to catch the hook , wherein the at least one latching ledge comprises at least a latching position , wherein the first leg and the second leg of the hook may be coupled with the base plate , wherein the latching position at the first leg may be latched with the latching position at the latching ledge , wherein the at least one hook and the at least one base plate are configured in such that the hook may be latched to the at least one base plate via a swivel movement of the at least one hook , characterized in that the at least one base plate comprises at least a receptacle for the free end of the second leg , wherein the receptacle comprises at least a mounting hook and a support ledge to support the second leg .
A process for producing a stabilizer dispersion S comprising a) at least one phenolic stabilizer A; b) at least one thio co-stabilizer B; c) at least one surfactant C; d) at least one silicon oil component D; e) optional at least one further component E; and f) an aqueous phase P comprising at least 80 % by weight, based on the total aqueous phase P, water wherein the process comprises the following steps: i) providing an aqueous composition comprising the aqueous phase P; ii) adding the at least one thio co-stabilizer B to the aqueous composition obtained in step i), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iii) adding the at least one phenolic stabilizer A to the aqueous composition obtained in step ii), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iv) adding at least one surfactant C; v) adding at least one silicon oil component D and optionally at least one further component E; vi) homogenization of the aqueous composition obtained in steps i) to v) wherein the aqueous composition is passed at least once through at least one homogenization device, wherein the stabilizer dispersion S, consisting of an continuous phase and at least one disperse phase, is obtained. a) at least one phenolic stabilizer A; b) at least one thio co-stabilizer B; c) at least one surfactant C; d) at least one silicon oil component D; e) optional at least one further component E; and f) an aqueous phase P comprising at least 80 % by weight, based on the total aqueous phase P, water i) providing an aqueous composition comprising the aqueous phase P; ii) adding the at least one thio co-stabilizer B to the aqueous composition obtained in step i), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iii) adding the at least one phenolic stabilizer A to the aqueous composition obtained in step ii), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iv) adding at least one surfactant C; v) adding at least one silicon oil component D and optionally at least one further component E; vi) homogenization of the aqueous composition obtained in steps i) to v) wherein the aqueous composition is passed at least once through at least one homogenization device, wherein the stabilizer dispersion S, consisting of an continuous phase and at least one disperse phase, is obtained.
A switching device for a vehicle comprising a transformer , the vehicle being in particular a public transit vehicle, the transformer comprising at least one first winding , a first housing containing the first winding , and a first primary connector electrically connected to the first winding through the first housing , the switching device comprising a second housing , an input terminal configured to receive an electric current, a first secondary connector , and a switching member configured to switch between a first configuration in which the switching member electrically connects the input terminal and the first secondary connector and a second configuration in which the switching member electrically isolates the input terminal from the first secondary connector , the switching member being housed in the second housing , the first secondary connector being electrically connected to the switching member through the second housing and being adapted to be connected to the first primary connector , the switching device being characterized in that the first secondary connector is configured to cooperate with the first primary connector to attach the switching device to the transformer , in particular to the first housing , in a connection position when the first primary connector is connected to the first secondary connector , the second housing being integral with the first housing when the switching device is in the connection position.
A method for determining an energy content of a fuel gas, tail gas, or bio-gas mixture using a gas density meter, comprising the steps of: providing a vibratory gas density meter; providing meter electronics with the gas density meter configured to communicate with at least one external input, wherein the external input comprises a percent H 2 value of the gas mixture, a percent CO value of the gas mixture, a percent CO 2 value of the gas mixture, and a percent N 2 value of the gas mixture; measuring a density of the gas mixture; measuring a specific gravity of the gas mixture; and deriving a calorific value of the gas mixture using the measured specific gravity and a plurality of constant values; wherein the calorific value ( CV ) is calculated, in, according to an equation comprising: CV = A + (B · percent H 2 ) + ( C · percent CO) + ( D · percent CO 2 ) + ( E · percent N 2 ) + ( F · SG ), wherein A is between about 144.8 and 150.8, wherein B is between about -2.5 and -2.6, wherein C is between about -12.15 and -12.65, wherein D is between about -47.7 and -49.65, wherein E is between about -24.68 and -25.69, and wherein F is between about 1528.7 and 1591.1, and SG comprises the specific gravity; and calculating the specific gravity from the measured density. providing a vibratory gas density meter; providing meter electronics with the gas density meter configured to communicate with at least one external input, wherein the external input comprises a percent H 2 value of the gas mixture, a percent CO value of the gas mixture, a percent CO 2 value of the gas mixture, and a percent N 2 value of the gas mixture; measuring a density of the gas mixture; measuring a specific gravity of the gas mixture; and deriving a calorific value of the gas mixture using the measured specific gravity and a plurality of constant values; wherein the calorific value ( CV ) is calculated, in, according to an equation comprising: CV = A + (B · percent H 2 ) + ( C · percent CO) + ( D · percent CO 2 ) + ( E · percent N 2 ) + ( F · SG ), wherein A is between about 144.8 and 150.8, wherein B is between about -2.5 and -2.6, wherein C is between about -12.15 and -12.65, wherein D is between about -47.7 and -49.65, wherein E is between about -24.68 and -25.69, and wherein F is between about 1528.7 and 1591.1, and SG comprises the specific gravity; and calculating the specific gravity from the measured density.
A method for operating a motor vehicle , in particular a utility vehicle, comprising: manually entering or leaving a parking space with the motor vehicle along a first trajectory (T 1 ) during a first parking procedure, in particular a parking procedure for entering a parking space; recording the first trajectory (T 1 ) during the first parking procedure; and establishing a second trajectory (T 2 ) by applying a smoothing method to the first trajectory (T 1 ) and/or by adjusting the first trajectory (T 1 ) to surroundings data recorded during the first parking procedure, in particular to obstacles and/or obstacle-free regions determined from the recorded surroundings data. manually entering or leaving a parking space with the motor vehicle along a first trajectory (T 1 ) during a first parking procedure, in particular a parking procedure for entering a parking space; recording the first trajectory (T 1 ) during the first parking procedure; and establishing a second trajectory (T 2 ) by applying a smoothing method to the first trajectory (T 1 ) and/or by adjusting the first trajectory (T 1 ) to surroundings data recorded during the first parking procedure, in particular to obstacles and/or obstacle-free regions determined from the recorded surroundings data.
A pouch-type secondary battery, comprising: an electrode assembly; and a pouch member comprising an internal space configured to accommodate the electrode assembly therein and a degassing sealing portion formed by sealing one end portion releasing internal gas, wherein the degassing sealing portion is configured to project toward the electrode assembly, wherein the degassing sealing portion comprises, a degassing bar having two end portions to which a side sealing portion configured to seal the two end portions of the pouch member is connected and formed to seal one end portion through which gas inside the pouch member is released; and an offset bar extended from the degassing bar and formed to project toward the electrode assembly, wherein the offset bar is formed to be shorter than the degassing bar and is spaced apart from the side sealing portion by a predetermined distance. an electrode assembly; and a pouch member comprising an internal space configured to accommodate the electrode assembly therein and a degassing sealing portion formed by sealing one end portion releasing internal gas, wherein the degassing sealing portion is configured to project toward the electrode assembly, wherein the degassing sealing portion comprises, a degassing bar having two end portions to which a side sealing portion configured to seal the two end portions of the pouch member is connected and formed to seal one end portion through which gas inside the pouch member is released; and an offset bar extended from the degassing bar and formed to project toward the electrode assembly, wherein the offset bar is formed to be shorter than the degassing bar and is spaced apart from the side sealing portion by a predetermined distance.
A monoterperne for use in treating a brain tumor in a mammal, wherein the monoterpene is perillyl alcohol and is administered before or concurrently with a therapeutic agent that is a chimeric antigen receptor T-cell (CAR-T cell).
Operating mechanism for a window covering, comprising: - a stationary carrying structure ; - a drive shaft , preferably at least partially accommodated within the carrying structure , for driving and thereby raising and/or lowering the window covering; - a drive wheel for engaging with an engagement means, in particular a cord or chain, for rotating the drive wheel ; - a switchable coupling for switching between a coupled state in which the drive shaft is coupled to the drive wheel and an uncoupled state in which the drive shaft is uncoupled from the drive wheel ; and - an operating element for switching the coupling between the coupled state and the uncoupled state, wherein the coupling comprises a transmission element , which transmission element can be translated by means of the operating element between: - a first position in which the transmission element is coupled to the drive wheel and the coupling adopts the coupled state; and - a second position in which the transmission element is uncoupled from the drive wheel and the coupling adopts the uncoupled state, characterized in that the drive shaft is free to rotate in the uncoupled state. - a stationary carrying structure ; - a drive shaft , preferably at least partially accommodated within the carrying structure , for driving and thereby raising and/or lowering the window covering; - a drive wheel for engaging with an engagement means, in particular a cord or chain, for rotating the drive wheel ; - a switchable coupling for switching between a coupled state in which the drive shaft is coupled to the drive wheel and an uncoupled state in which the drive shaft is uncoupled from the drive wheel ; and - an operating element for switching the coupling between the coupled state and the uncoupled state, - a first position in which the transmission element is coupled to the drive wheel and the coupling adopts the coupled state; and - a second position in which the transmission element is uncoupled from the drive wheel and the coupling adopts the uncoupled state,
Household refrigeration appliance with a carcass , which has an inner container delimiting with its walls a receptacle chamber for food and an outer container surrounding the inner container , and with a door for closing a loading opening of the inner container , which is mounted pivotably on the carcass , wherein the carcass is surrounded at least in sections by a separate cladding , and an access recess of a handle designed for opening the door is embodied in a cladding part of the cladding on a front section facing towards the door , wherein the access recess is overlapped on the front side by the door when viewed in the width direction of the household refrigeration appliance and the access recess is delimited on the front side by a rear wall section of at least one component , characterised in that the door has an additional cladding part that covers the door on the front side and laterally and the rear wall section is formed at least in sections by the cladding part .