mhurhangee/patent-ind-claim-en huggingface dataset:
A Bluetooth Low Energy, BLE, Generic Attribute Profile, GATT, device comprising: a transmitter and receiver configured to transmit and receive communication packets to and from a second device ; and a processor , wherein the processor is configured to: - generate a packet which includes an attribute handle parameter set to a reference information of a characteristic for data communication and an attribute value parameter comprising a distinguishing information for distinguishing predetermined data and a flag for indicating a use of the packet; and - transmit the packet to the second device ; wherein the reference information is a handle of the characteristic for data communication; wherein the characteristic for data communication is a characteristic used for data communication between the device and the second device ; wherein the flag is set to a first value if the packet is used for requesting the second device to write the predetermined value in an attribute value corresponding to the distinguishing information, a second value if the packet is used to make a request to the second device for the predetermined data distinguished by the piece of distinguishing information, and a third value if the packet is used to notify the predetermined data to the second device ; wherein the attribute value parameter further comprises the predetermined data when the packet is used for writing or notifying the predetermined data. a transmitter and receiver configured to transmit and receive communication packets to and from a second device ; and a processor , wherein the processor is configured to: - generate a packet which includes an attribute handle parameter set to a reference information of a characteristic for data communication and an attribute value parameter comprising a distinguishing information for distinguishing predetermined data and a flag for indicating a use of the packet; and - transmit the packet to the second device ; wherein the reference information is a handle of the characteristic for data communication; wherein the characteristic for data communication is a characteristic used for data communication between the device and the second device ; wherein the flag is set to a first value if the packet is used for requesting the second device to write the predetermined value in an attribute value corresponding to the distinguishing information, a second value if the packet is used to make a request to the second device for the predetermined data distinguished by the piece of distinguishing information, and a third value if the packet is used to notify the predetermined data to the second device ; wherein the attribute value parameter further comprises the predetermined data when the packet is used for writing or notifying the predetermined data. - generate a packet which includes an attribute handle parameter set to a reference information of a characteristic for data communication and an attribute value parameter comprising a distinguishing information for distinguishing predetermined data and a flag for indicating a use of the packet; and - transmit the packet to the second device ;
Multicomponent injection molding tool for producing an injection-molded part , comprising at least two mold halves which can be moved apart from one another and together again, of which a first mold half is stationary and a second mold half is movable, and comprising at least two mold cavities which are formed between the mold halves , of which a first mold cavity is for molding a pre-molded part (2.1) from a first component and a second mold cavity for molding the injection-molded part , comprising the pre-molded part (2. 1) and a second component, wherein the second mold half comprises a mold insert bounding the first mold cavity for producing an abutment surface on the pre-molded part (2.1), characterized in that the second mold half comprises a turntable (5.1) with the mold insert , and in that the mold insert is designed as a movable slide in order, in its first position (12.1) on the first mold cavity , to limit the latter in order to produce an abutment surface on the pre-molded part (2.1) and, in its second position (12.2) on the second mold cavity , to widen the latter towards the abutment surface on the pre-molded part (2.1).
A signal modulation method, applied to an intensity modulation and direct detection , IMDD, system, and the method comprises: Performing , by a transmit end, pulse amplitude modulation, PAM, encoding on an input signal to obtain a PAM signal; electrically modulating , by the transmit end, the PAM signal by using a first filter; converting , by the transmit end, the electrically modulated PAM signal into an analog signal; optically modulating , by the transmit end, the analog signal by using an electro-optic modulator to obtain an optical signal, wherein a bias voltage of the electro-optic modulator is M+V pi , V pi is a variation value of the bias voltage in any cycle of a modulation curve of the electro-optic modulator when an output optical power of the electro-optic modulator varies from a maximum value to a minimum value or varies from a minimum value to a maximum value, the modulation curve is a curve corresponding to a function whose independent variable is the bias voltage and dependent variable is the output optical power, and M is a value of the bias voltage when the output optical power is the largest; and sending, by the transmit end, the optical signal. Performing , by a transmit end, pulse amplitude modulation, PAM, encoding on an input signal to obtain a PAM signal; electrically modulating , by the transmit end, the PAM signal by using a first filter; converting , by the transmit end, the electrically modulated PAM signal into an analog signal; optically modulating , by the transmit end, the analog signal by using an electro-optic modulator to obtain an optical signal, wherein a bias voltage of the electro-optic modulator is M+V pi , V pi is a variation value of the bias voltage in any cycle of a modulation curve of the electro-optic modulator when an output optical power of the electro-optic modulator varies from a maximum value to a minimum value or varies from a minimum value to a maximum value, the modulation curve is a curve corresponding to a function whose independent variable is the bias voltage and dependent variable is the output optical power, and M is a value of the bias voltage when the output optical power is the largest; and sending, by the transmit end, the optical signal.
A collapsible container , containing a door part , a rear part and a central part comprising at least one collapsible module comprising a floor , a roof and two side walls , wherein the first side wall is connected to the roof with use of a locking means whereas the second side wall in the unfolded position of the collapsible module is releasably connected to the floor with use of locking means , characterised in that the first side wall is connected with its bottom edge tiltably to the floor and additionally fixed to the roof with use of a connecting means in such a way that when the locking means are unlocked, the roof can be lowered by holding through the connecting means the first side wall which is tilted towards the second side wall and folded towards the floor whereas the second side wall is connected with its top edge tiltably to the roof and is supported slidably with its bottom edge on the floor , and also tilted and folded towards the floor , wherein the bottom edge of the second side wall is slid on the floor under the first side wall in such a way, that when the roof reaches its bottom dead position, the floor , the roof , the first side wall and the second side wall are in the folded arrangement, occupying maximum 25% of the height of the collapsible module before folding, and in the folded position at least one collapsible module can be placed into the rear part subsequently closed directly by the door part .
A method for obtaining a magnesium fluoride (MgF 2 ) sol solution, comprising the steps of a. providing magnesium carboxylate in a non-aqueous solvent in a first volume and b. adding, in a second volume, 1.85 to 2.05 molar equivalents of anhydrous hydrogen fluoride (HF) per mole magnesium carboxylate to said first volume, wherein at least one metal additive, selected from the group of lithium, calcium, antimony, tin, magnesium, strontium, aluminium, silicium, zirconium, titanium or zinc, is added before, during or after step b), wherein the amount of said metal additive, in relation to the amount of magnesium, is 1 : 100 to 1 : 5, as measured in molar equivalent of said metal additive to magnesium, wherein an additional amount of hydrogen fluoride (n adHF ) is present in step b computed according to the formula n adHF = n M * X additive * Ox * A , wherein - n M is the molar amount of magnesium, - X additive is the molar percentage of said metal additive in relation to n M , - X additive is in the range of 1 % to 20 %, - Ox is the number characterizing the oxidation state of said metal additive, and - A is selected from 0 ≤ A ≤ 1, and wherein, the water content of the sol solution is equal to or lower than 2.5 molar equivalents in relation to the molar magnesium content of the solution. a. providing magnesium carboxylate in a non-aqueous solvent in a first volume and b. adding, in a second volume, 1.85 to 2.05 molar equivalents of anhydrous hydrogen fluoride (HF) per mole magnesium carboxylate to said first volume, wherein - n M is the molar amount of magnesium, - X additive is the molar percentage of said metal additive in relation to n M , - X additive is in the range of 1 % to 20 %, - Ox is the number characterizing the oxidation state of said metal additive, and - A is selected from 0 ≤ A ≤ 1, and wherein,
Process for preparing polysilanes having at least two silicon atoms bonded to one another via a covalent single bond, by i) subjecting a stream of reactants comprising monosilane of the general formula I and hydrogen, and the stream of reactants has a ratio of hydrogen and monosilane in per cent by volume (% by vol.) of 15:1 to 1:5, ii) to at least one gas discharge and iii) obtaining a polysilane mixture from the resulting phase, and setting the defined ratio of the partial hydrogen pressure to the partial pressure of the silanes which are gaseous under the conditions selected in the resulting phase by means of a hydrogen-permeable membrane, and iv) separating the polysilane mixture. i) subjecting a stream of reactants comprising monosilane of the general formula I and hydrogen, and the stream of reactants has a ratio of hydrogen and monosilane in per cent by volume (% by vol.) of 15:1 to 1:5, ii) to at least one gas discharge and iii) obtaining a polysilane mixture from the resulting phase, and setting the defined ratio of the partial hydrogen pressure to the partial pressure of the silanes which are gaseous under the conditions selected in the resulting phase by means of a hydrogen-permeable membrane, and iv) separating the polysilane mixture.
A method of forming a nanomaterial, the method comprising: mixing a lecithin based microemulsion with a first reactant and a second reactant; wherein the first reactant is selected from the group consisting of metal salts, metal alloys, metal composites, proteins, monomers for polymeric synthesis, oligomers for polymeric synthesis, and combinations of any thereof; wherein the second reactant is a catalytic agent selected from the group consisting of a reducing agent, an oxidizing agent, an enzyme, co-enzyme, metal catalyst, ligands, chelators, and combinations of any thereof; and, wherein the lecithin based microemulsion comprises lecithin, a non-ionic co-surfactant, and an acidifier selected from the group consisting of a carboxylic acid, a salt of a carboxylic acid, an ester of a carboxylic acid, and combinations of any thereof. mixing a lecithin based microemulsion with a first reactant and a second reactant; wherein the first reactant is selected from the group consisting of metal salts, metal alloys, metal composites, proteins, monomers for polymeric synthesis, oligomers for polymeric synthesis, and combinations of any thereof; wherein the second reactant is a catalytic agent selected from the group consisting of a reducing agent, an oxidizing agent, an enzyme, co-enzyme, metal catalyst, ligands, chelators, and combinations of any thereof; and, wherein the lecithin based microemulsion comprises lecithin, a non-ionic co-surfactant, and an acidifier selected from the group consisting of a carboxylic acid, a salt of a carboxylic acid, an ester of a carboxylic acid, and combinations of any thereof.
Sealed closure system for a cartridge filter, comprising a cylindrical body and a cover which sealingly closes the body , characterized in that: - the body comprises a projection for supporting the cover and a recess housing a stop , - the cover comprises a peripheral recess housing a hollow and inflatable seal and a hole for the passage of a tube connected to the seal for supplying a fluid, where, - the stop is formed by at least two parts, - the cover is housed in the body in a tight-fitting manner, - the stop housed in the recess of the body prevents movement of the cover due to the pressure exerted by the fluid to be treated inside the filter, such that, when the fluid is supplied in the tube , the seal is inflated and exerts pressure on the inner wall of the body , thereby closing and sealing the filter. - the body comprises a projection for supporting the cover and a recess housing a stop , - the cover comprises a peripheral recess housing a hollow and inflatable seal and a hole for the passage of a tube connected to the seal for supplying a fluid, where, - the stop is formed by at least two parts, - the cover is housed in the body in a tight-fitting manner, - the stop housed in the recess of the body prevents movement of the cover due to the pressure exerted by the fluid to be treated inside the filter,
A biological test cassette, comprising: a support and a cassette body , wherein the support is provided with a first via hole , the cassette body is provided with a second via hole corresponding to the position of the first via hole, the cassette body is mounted on a top surface of the support, and the cassette body is further provided with a pretreatment chamber and a first flow channel in communication with the pretreatment chamber; a chip , a first connecting tube and a second connecting tube , wherein the chip is slidably provided on a bottom surface of the support, the chip is provided with an analyzing and processing chamber and a second flow channel in communication with the analyzing and processing chamber, the first connecting tube is arranged through the first via hole and the second via hole, and has one end in communication with the first flow channel, and the other end in communication with one end of the second connecting tube, the second connecting tube is a flexible tube that is movable and bendable between the chip and the support, and has the other end in communication with the second flow channel. a support and a cassette body , wherein the support is provided with a first via hole , the cassette body is provided with a second via hole corresponding to the position of the first via hole, the cassette body is mounted on a top surface of the support, and the cassette body is further provided with a pretreatment chamber and a first flow channel in communication with the pretreatment chamber; a chip , a first connecting tube and a second connecting tube , wherein the chip is slidably provided on a bottom surface of the support, the chip is provided with an analyzing and processing chamber and a second flow channel in communication with the analyzing and processing chamber,
A method for discharging and/or charging a lithium-oxygen battery, the method comprising: (i) generating a discharge product on or within a working electrode in a lithium-oxygen battery in a discharging step, wherein the amount of LiOH in the discharge product is greater than the amount of Li 2 O 2 ; and/or (ii) consuming LiOH on or within a working electrode in a lithium-oxygen battery in a charging step, thereby to generate oxygen together with water, wherein the amount of LiOH consumed in the charging step is greater than the amount of Li 2 O 2 consumed, and the lithium-oxygen battery has an electrolyte comprising an organic solvent and an iodine-based redox mediator having an I - /I 3 - couple, wherein the water content of the electrolyte of a fully charged battery is 3 to 6 wt%. (i) generating a discharge product on or within a working electrode in a lithium-oxygen battery in a discharging step, wherein the amount of LiOH in the discharge product is greater than the amount of Li 2 O 2 ; and/or (ii) consuming LiOH on or within a working electrode in a lithium-oxygen battery in a charging step, thereby to generate oxygen together with water, wherein the amount of LiOH consumed in the charging step is greater than the amount of Li 2 O 2 consumed,
Folding gate comprising • two wing-like folding-door elements , a first of the two folding-door elements being mounted such that it can rotate about a pivot axis (I), and the second folding-door element being connected to the first folding-door element such that it can move on one side about an axis (II) which runs parallel to the pivot axis (I), • a drive configured to pivot the first folding door element about the pivot axis (I) to open and close the folding door , - wherein the drive comprises a sprocket and a motor-driven pinion cooperating with the sprocket , - wherein the sprocket is disposed at a bearing point for the first folding door element and the pinion is disposed on the first folding door element , and - wherein the sprocket and the pinion cooperate such that the pinion moves along the sprocket to open and close the folding gate , characterized in that in that the second folding door element is guided on a second side, which is opposite the first side, such that it can be displaced and pivoted along a guide element , and that the sprocket has a radius of 200mm to 1000mm. • two wing-like folding-door elements , a first of the two folding-door elements being mounted such that it can rotate about a pivot axis (I), and the second folding-door element being connected to the first folding-door element such that it can move on one side about an axis (II) which runs parallel to the pivot axis (I), • a drive configured to pivot the first folding door element about the pivot axis (I) to open and close the folding door , - wherein the drive comprises a sprocket and a motor-driven pinion cooperating with the sprocket , - wherein the sprocket is disposed at a bearing point for the first folding door element and the pinion is disposed on the first folding door element , and - wherein the sprocket and the pinion cooperate such that the pinion moves along the sprocket to open and close the folding gate , - wherein the drive comprises a sprocket and a motor-driven pinion cooperating with the sprocket , - wherein the sprocket is disposed at a bearing point for the first folding door element and the pinion is disposed on the first folding door element , and - wherein the sprocket and the pinion cooperate such that the pinion moves along the sprocket to open and close the folding gate , in that the second folding door element is guided on a second side, which is opposite the first side, such that it can be displaced and pivoted along a guide element , and that the sprocket has a radius of 200mm to 1000mm.
A device for applying a mechanotherapeutic stimulus to a human or animal body, comprising a material which is to be worn over an area of the body, a pressure regulating support, a pressure applicator for being acted upon by the support to apply pressure to said area, the pressure applicator comprising a front, pressure applying face which in use is proximal to the body, and a rear face, a sensor for sensing pressure and hence a stimulus applied to the area as a result of the tension in the support , the sensor being configured to output a signal indicative of the pressure applied, wherein the rear face of the pressure applicator is generally convex and in use is urged by the support towards the area of the body; and characterised in that the pressure regulating support comprises a strap, band or other tension member; the strap, band or other tension member having a first portion fixed or removably fixable to the material and a second portion removably fixable to the material to allow for tension in the support to be varied.
A support device comprising: a backing layer comprising a first surface and second surface , opposite the first surface , wherein the backing layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001 and the first surface of the backing layer is liquid water impermeable; a cushioning element positioned adjacent the second surface of the backing layer ; a base layer comprising a first surface adjacent the cushioning element and a second surface , opposite the first surface of the cushioning element , wherein the base layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001; wherein the base layer is entirely contiguous such that the base layer is free of perforations; wherein the second surface of the base layer comprises an adhesive ; wherein the base layer and backing layer connect entirely around the cushioning element . a backing layer comprising a first surface and second surface , opposite the first surface , wherein the backing layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001 and the first surface of the backing layer is liquid water impermeable; a cushioning element positioned adjacent the second surface of the backing layer ; a base layer comprising a first surface adjacent the cushioning element and a second surface , opposite the first surface of the cushioning element , wherein the base layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001; wherein the base layer is entirely contiguous such that the base layer is free of perforations; wherein the second surface of the base layer comprises an adhesive ; wherein the base layer and backing layer connect entirely around the cushioning element .